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BS EN 60870-5-101:1996:2002 Edition

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Telecontrol equipment and systems. Transmission protocols – Companion standard for basic telecontrol tasks

Published By Publication Date Number of Pages
BSI 2002 188
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PDF Pages PDF Title
1 BRITISH STANDARD
2 Committees responsible for this British�Standard
3 Contents
6 Foreword
Foreword to amendment A1
Foreword to amendment A2
Contents
11 1 Scope and object
2 Normative references
12 3 Definitions
3.1 companion standard
3.2 group (of information objects)
3.3 control direction
3.4 monitor direction
3.5 system parameter
3.6 network-specific parameter
3.7 station-specific parameter
3.8 object-specific parameter
13 4 General rules
4.1 Protocol structure
Figure 1 – Selected standard provisions of the defined telecontrol companion standard
4.2 Physical layer
14 Figure 2 – Interfaces and connections of controlling and controlled stations
4.3 Link layer
4.4 Application layer
15 4.5 User process
5 Physical layer
5.1 Selections from ISO and ITU-T standards
Table 1 – Selection from V.24/V.28
16 Table 2 – Selection from X.24/X.27 for interfaces to synchronous digital signal multiplexers
6 Link layer
6.1 Selections from IEC�60870-5-1: Transmission frame formats
17 6.2 Selections from IEC�60870-5-2: Link transmission procedures
Figure 75 – State transition diagram by Grady Booch/Harel
18 Table 10 – Permissible combinations of unbalanced link layer services
19 Figure 76 – Unbalanced transmission procedures, primary and secondary stations
20 Figure 77 – State transition diagram for unbalanced transmission primary to secondary
21 Figure 78 – State transition diagram for unbalanced transmission secondary to primary
22 Table 11 – Permissible combinations of balanced link layer services
23 Figure 79 – Balanced transmission procedures, primary and secondary link layers
24 Figure 80 – State transition diagram for balanced transmission primary to secondary
25 Figure 81 – State transition diagram for balanced transmission secondary to primary
27 Table 12
28 Table 13
Table 14 – Effects of different resets
7 Application layer and user process
7.1 Selections from IEC�60870-5-3: General structure of application data
30 Figure 3
31 7.2 Selections from IEC 60870-5-4: Definition and coding of application information elements
Figure 4
32 Table 3
33 Table 4
Table 5
Table 6
Table 7
34 Table 8
Figure 5
35 Figure 82
37 Figure 6
38 Figure 83 – Station interrogation via a concentrator station using the originator address
39 Figure 84 – Command transmission via a concentrator station using the originator address
40 Table 9
41 Figure 7
42 Figure 8
43 Figure 9
Figure 10
Figure 11
44 Table 15
58 7.3 Definition and presentation of the specific ASDUs
Figure 12 – ASDU: M_SP_NA_1 Single-point information without time tag
59 Figure 13 – ASDU: M_SP_NA_1 Sequence of single-point information without time tag
60 Figure 14 – ASDU: M_SP_TA_1 Single-point information with time tag
61 Figure 15 – ASDU: M_DP_NA_1 Double-point information without time tag
62 Figure 16 – ASDU: M_DP_NA_1 Sequence of double-point information without time tag
63 Figure 17 – ASDU: M_DP_TA_1 Double-point information with time tag
64 Figure 18 – ASDU: M_ST_NA_1 Step position information
65 Figure 19 – ASDU: M_ST_TA_1 Step position information with time tag
66 Figure 20 – ASDU: M_BO_NA_1 Bitstring of�32 bit
67 Figure 21 – ASDU: M_BO_TA_1 Bitstring of�32 bit
68 Figure 22 – ASDU: M_ME_NA_1 Measured value, normalized value
69 Figure 23 – ASDU: M_ME_NA_1 Sequence of measured values, normalized values
70 Figure 24 – ASDU: M_ME_TA_1 Measured value, normalized value with time tag
71 Figure 25 – ASDU: M_ME_NB_1 Measured value, scaled value
72 Figure 26 – ASDU: M_ME_NB_1 Sequence of measured values, scaled values
73 Figure 27 – ASDU: M_ME_TB_1 Measured value, scaled value with time tag
74 Figure 28 – ASDU: M_ME_NC_1 Measured value, short floating point number
75 Figure 85 – ASDU: M_ME_NC_1 Sequence of measured values, short floating point number
76 Figure 29 – ASDU: M_ME_TC_1 Measured value, short floating point number with time tag
77 Figure 30 – ASDU: M_IT_NA_1 Integrated totals
78 Figure 86 – ASDU: M_IT_NA_1 Sequence of integrated totals
79 Figure 31 – ASDU: M_IT_TA_1 Integrated totals with time tag
80 Figure 32 – ASDU: M_EP_TA_1 Event of protection equipment with time tag
81 Figure 33 – ASDU: M_EP_TB_1 Packed start events of protection equipment with time tag
82 Figure 34 – ASDU: M_EP_TC_1 Packed output circuit information of protection equipment with time tag
83 Figure 35 – ASDU: M_PS_NA_1 Packed single-point information with status change detection
84 Figure 36 – ASDU: M_ME_ND_1 Measured value, normalized value without quality descriptor
85 Figure 37 – ASDU: M_ME_ND_1 Sequence of measured values, normalized values without quality descriptor
86 Figure 64 – ASDU: M_SP_TB_1 Single-point information with time tag CP56Time2a
87 Figure 65 – ASDU: M_DP_TB_1 Double-point information with time tag CP56Time2a
89 Figure 66 – ASDU: M_ST_TB_1 Step position information with time tag CP56Time2a
90 Figure 67 – ASDU: M_BO_TB_1 Bitstring of 32 bits with time tag CP56Time2a
92 Figure 68 – ASDU: M_ME_TD_1 Measured value, normalized value with time tag CP56Time2a
94 Figure 69 – ASDU: M_ME_TE_1 Measured value, scaled value with time tag CP56Time2a
96 Figure 70 – ASDU: M_ME_TF_1 Measured value, short floating point number with time �tag CP5…
98 Figure 71 – ASDU: M_IT_TB_1 Integrated totals with time tag CP56Time2a���
100 Figure 72 – ASDU: M_EP_TD_1 Event of protection equipment with time tag CP56Time2a
101 Figure 73 – ASDU: M_EP_TE_1 Packed start events of protection equipment with time tag CP56Time2a
102 Figure 74 – ASDU: M_EP_TE_1 Packed output circuit information of protection equipment with time tag CP56Time2a
103 Figure 38 – ASDU: C_SC_NA_1 Single command
104 Figure 39 – ASDU: C_DC_NA_1 Double command
105 Figure 40 – ASDU: C_RC_NA_1 Regulating step command
106 Figure 41 – ASDU: C_SE_NA_1 Set-point command, normalized value
107 Figure 42 – ASDU: C_SE_NB_1 Set-point command, scaled value
108 Figure 43 – ASDU: C_SE_NC_1 Set-point command, short floating point number
109 Figure 44 – ASDU: C_BO_NA_1 Bitstring of�32 bit
110 Figure 45 – ASDU: M_EI_NA_1 End of initialization
Figure 46 – ASDU: C_IC_NA_1 Interrogation command
111 Figure 47 – ASDU: C_CI_NA_1 Counter interrogation command
112 Figure 48 – ASDU: C_RD_NA_1 Read command
113 Figure 50 – ASDU: C_TS_NA_1 Test command
114 Figure 51 – ASDU: C_RP_NA_1 Reset process command
115 Figure 52 – ASDU: C_CD_NA_1 Delay acquisition command
116 Figure 53 – ASDU: P_ME_NA_1 Parameter of measured values, normalized value
117 Figure 54 – ASDU: P_ME_NB_1 Parameter of measured values, scaled value
118 Figure 55 – ASDU: P_ME_NC_1 Parameter of measured values, short floating point number
119 Figure 56 – ASDU: P_AC_NA_1 Parameter activation
120 Figure 57 – ASDU: F_FR_NA_1 File ready
121 Figure 58 – ASDU: F_SR_NA_1 Section ready
122 Figure 59 – ASDU: F_SC_NA_1 Call directory, select file, call file, call section
123 Figure 60 – ASDU: F_LS_NA_1 Last section, last segment
124 Figure 61 – ASDU: F_AF_NA_1 ACK file, ACK section
125 Figure 62 – ASDU: F_SG_NA_1 Segment
126 Figure 63 – ASDU: F_DR_TA_1 Directory
127 7.4 Selections from IEC 60870-5-5: Basic application functions
Table 16 – Respond priorities of the controlled station
129 Table 17 – ASDUs involved in the station interrogation procedure
130 Figure 87 – Hierarchical presentation of the allocation of common addresses of ASDUs to LRUs (example)
131 Figure 88 – Sequential procedure of station interrogation to all LRUs of a specific controlled station (example)
132 Figure 89 – General counter model
133 Figure 90 – Sequential procedure of spontaneously transmitted integrated totals (mode�A)
134 Figure 91 – Sequential procedure of interrogation of integrated totals (mode�B)
135 Figure 92 – Sequential procedure of memorizing of integrated totals without reset (mode�C)
Figure 93 – Sequential procedure of memorizing of integrated totals with reset (mode�C)
137 Figure 94 – Addressing of files (example)
138 Figure 95 – Request from protection equipment
139 Figure 96 – Request from substation automation system
140 Figure 97 – Structure of disturbance data of a protection equipment
141 Figure 98 – Allocation of data types (ASDUs) of IEC 60870-5-103 to the sections of disturbance data files
143 Figure 99 – Allocation of the data unit type 23 to the directory F_DR_TA_1
144 Table 18 – Allocation of type identification to type identification (IEC�60870�5�101�and�IEC�60870-5-103)
Table 19 – Example for the definition of information object addresses (directory�or�subdirectory)
145 Tabel 20 – Allocation of SOF status of file to SOF status of fault (IEC�60870�5�101�and�IEC�60870�5-103)
146 Figure 100 – Sequential procedure, transmission of the directory
147 Figure 101 – Sequential procedure, transmission of disturbance data files
151 Figure 102 – Record of sequences of events in the section of a data file
153 Figure 103 – Sequential procedure, transmission of sequences of events
154 Figure 104 – Section of a data file containing sequences of recorded analogue values
156 Figure 105 – Sequential procedure, transmission of sequences of recorded analogue values
157 Table 21 – Type identifications for background scan
Figure 106 – Sequential procedure, read procedure
158 8 Interoperability
159 8.1 System or device
8.2 Network configuration
8.3 Physical layer
160 8.4 Link layer
8.5 Application layer
165 8.6 Basic application functions
169 Annex A (informative) Proof of the synchronization stability of frame format class FT 1.2
A.1 Introduction
A.1.1 UART definition
170 A.1.2 Frame format definitions FT 1.2
171 A.1.3 Explanatory information on the proofs according to
A.2 Proof of the shift insusceptibility of the specified characters
A.2.1 Shift insusceptibility of START 68H
172 A.2.2 Shift insusceptibility of START 10H
A.2.3 Shift insusceptibility of SINGLE CHARACTER E5H
173 A.2.4 Shift insusceptibility of SINGLE CHARACTER A2H
174 A.2.5 Shift insusceptibility of END 16H
A.3 Proof of the mutual shift insusceptibility of the characters
A.3.1 Shift insusceptibility of START 68H against START 10H
175 A.3.2 Shift insusceptibility of START 10H against START 68H
A.3.3 Shift insusceptibility of SINGLE CHARACTER E5H against START 68H
176 A.3.4 Shift insusceptibility of START 68H against SINGLE CHARACTER E5H
A.3.5 Shift insusceptibility of SINGLE CHARACTER E5H against START 10H
177 A.3.6 Shift insusceptibility of START 10H against SINGLE CHARACTER E5H
A.3.7 Shift insusceptibility of SINGLE CHARACTER A2H against START 68H
178 A.3.8 Shift insusceptibility of START 68H against SINGLE CHARACTER A2H
A.3.9 Shift insusceptibility of SINGLE CHARACTER A2H against START 10H
179 A.3.10 Shift insusceptibility of START 10H against SINGLE CHARACTER A2H
A.3.11 Shift insusceptibility of SINGLE CHARACTER A2H against SINGLE CHARACTER E5H
180 A.3.12 Shift insusceptibility of SINGLE CHARACTER E5H against SINGLE CHARACTER A2H
A.4 Shift insusceptibility for frames with variable block length
184 Annex B (informative) Admittance of line idle intervals between characters of frame format class�FT�1.2
Figure B.1 – Shift of a character caused by an inverted additional line idle bit
Figure B.2 – Relation of even and odd bit pattern to the parity bit
185 Figure B.3 – Shifted bit pattern
186 Annex ZA (normative) Normative references to international publications with their corresponding European …
BS EN 60870-5-101:1996
$215.11