IEC 61158-5-10:2010(E) specifies the structure and services of the type 10 IEC fieldbus Application Layer, in conformance with the OSI Basic Reference Model (ISO/IEC 7498) and the OSI Application Layer Structure (ISO/IEC 9545). This second edition cancels and replaces the first edition published in 2007 and constitutes a technical revision. The main change with respect to the previous edition are: – corrections; – improvements; – optimization of the synchronization; – optimization of the startup time from power down.

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8	CONTENTS
20	INTRODUCTION
21	1 Scope 1.1 Overview
22	1.2 Specifications 1.3 Conformance 2 Normative references
24	3 Terms, definitions, abbreviations, symbols and conventions 3.1 Referenced terms and definitions
25	3.2 Additional terms and definitions for distributed automation
27	3.3 Additional terms and definitions for decentralized periphery
35	3.4 Additional terms and definitions for media redundancy
36	3.5 Abbreviations and symbols
37	3.6 Additional abbreviations and symbols for distributed automation 3.7 Additional abbreviations and symbols for decentralized periphery
38	3.8 Additional abbreviations and symbols for media redundancy 3.9 Conventions
41	4 Concepts 5 Data type ASE 5.1 General
42	Figures Figure 1 – Data type class hierarchy example
44	5.2 Formal definition of data type objects
45	5.3 FAL defined data types
46	Tables Table 1 – V2 octets Table 2 – L2 octets
49	Table 3 – PERSISTDEF Table 4 – VARTYPE
50	Table 5 – ITEMQUALITYDEF
52	Table 6 – STATEDEF Table 7 – GROUPERRORDEF
54	Table 8 – ACCESSRIGHTSDEF Table 9 – HRESULT
56	Table 10 – E2 octets
57	Table 11 – E2 value range Table 12 – Unipolar2.16 octets Table 13 – Unipolar2.16 value range
59	Table 14 – N2 value range Table 15 – N4 value range
60	Table 16 – X2 value range
61	Table 17 – X4 value range Table 18 – C4 value range
63	Table 19 – T2 value range Table 20 – T2 value range
64	Table 21 – D2 value range Table 22 – R2 value range
65	Table 23 – UUID for decentralized peripherals
66	Table 24 – UUID for distributed automation
67	Figure 2 – NetworkTime date relation Table 25 – NetworkTime values Table 26 – NetworkTime octets
69	Table 27 – UNICODEString values Table 28 – UTF-8 character encoding scheme
80	Table 29 – OctetString2+Unsigned8 octets
81	Table 30 – Float32+Unsigned8 octets Table 31 – Unsigned8+Unsigned8 octets
84	Table 32 – Data Types for Value in a VARIANT
85	Table 33 – Unsigned16_S octets Table 34 – Unsigned16_S meaning Table 35 – Integer16_S octets
86	Table 36 – Integer16_S meaning Table 37 – Unsigned8_S octets Table 38 – Unsigned8_S meaning
87	Table 39 – OctetString_S octets Table 40 – OctetString_S status bits Table 41 – F message trailer with 4 octets
88	5.4 Data type ASE service specification 6 Communication model for common services 6.1 Concepts 6.2 ASE data types Table 42 – F message trailer with 5 octets
89	6.3 ASEs
94	Table 43 – Get
96	Table 44 – Set
99	Table 45 – Identify
100	Table 46 – Hello
102	Figure 3 – PTCP applications
107	Table 47 – Start bridge
108	Table 48 – Start slave
109	Table 49 – Start master
110	Table 50 – Stop bridge
111	Table 51 –Stop slave Table 52 – Stop master
112	Table 53 – Sync state change
113	Figure 4 – Clock drift measurement
114	Figure 5 – Multiple synchronization
116	Figure 6 – MRP stack
121	Table 54 – Start MRM
122	Table 55 – Stop MRM
123	Table 56 – Redundancy state change
124	Table 57 – Start MRC
125	Table 58 – Stop MRC Table 59 – Neighborhood changed
127	Figure 7 – Ring topology with one manager and clients Figure 8 – MRM in an open ring
128	Figure 9 – More than one MRM in the ring
129	Figure 10 – Media redundancy diagnosis dependencies
130	Table 60 – MRP network/connection parameters
131	Table 61 – MRM parameters Table 62 – MRC parameters
132	Table 63 – Set Prov Data
133	Table 64 – Set Prov Status
134	Table 65 – PPM Activate
135	Table 66 – Close Table 67 – Start
136	Table 68 – Error Table 69 – Get Cons Data
137	Table 70 – Get cons status Table 71 – Set RedRole
138	Table 72 – CPM activate
142	Table 73 – APMS Activate
143	Table 74 – APMR Activate
144	Table 75 – APMS A Data
145	Table 76 – APMR A Data Table 77 – APMR Ack
146	Table 78 – APMS Error Table 79 – APMS Error ERRCLS/ERRCODE
147	Table 80 – APMR Error Table 81 – APMR Error ERRCLS/ERRCODE Table 82 – APMS_Close
148	Table 83 – APMR_Close
149	Table 84 – Connect
150	Table 85 – Release
151	Table 86 – Read
152	Table 87 – Write
153	Table 88 – Control
158	Table 89 – System capabilities
159	Table 90 – Auto negotiation support and status Table 91 – MDI Power Support
160	Table 92 – Link aggregation status
163	Table 93 – Remote systems data change
166	Table 94 – Allowed values of ReductionRatio
167	Table 95 – Frame IDs for RT_CLASS_3 Table 96 – Sync Frame Table 97 – FrameSendOffset
168	Table 98 – Tx Port Entry
169	Figure 11 – Locating the destination for redundant RT frames
171	Table 99 – Port state change Table 100 – Set port state
172	Table 101 – Flush filtering data base Table 102 – IFW IRT Schedule Add
173	Table 103 – IFW IRT Schedule Remove Table 104 – IFW Schedule
176	Figure 12 – Example of periods at a local port
178	Table 105 – MAU type change Table 106 – Set MAU type
181	Table 107 – IP Multicast address Table 108 – Set ARP Cache
183	Table 109 – Enterprise number
184	Table 110 – Vendor OUI
185	Table 111 –IRT Schedule Add Table 112 – IRT Schedule Remove
186	Table 113 –Schedule Table 114 – N Data
187	Table 115 – A Data
188	Table 116 – C Data
189	7 Communication model for distributed automation 7.1 Concepts
191	Figure 13 – FAL ASEs communication architecture
192	Figure 14 – Runtime object model
193	Figure 15 – Relationship between engineering and runtime
194	Figure 16 – Navigation in the runtime object model
195	7.2 ASE data types
196	Table 117 – Connectable data types
197	Table 118 – Supported data types according to the Base Object Version
199	7.3 ASEs Table 119 – Usage of character sets
201	Table 120 – QueryInterface (Unknown interface)
202	Table 121 – AddRef (Unknown interface)
203	Table 122 – Release (Unknown interface)
204	Table 123 – GetTypeInfoCount (Dispatch interface)
205	Table 124 – GetTypeInfo (Dispatch interface)
206	Table 125 – GetIDsOfNames (Dispatch interface)
207	Table 126 – Invoke (Dispatch interface)
212	Table 127 – CRC table for the PDev stamp calculation (hexadecimal values)
213	Table 128 – get_Producer (Physical device interface)
214	Table 129 – get_Product (Physical device interface)
215	Table 130 – get_SerialNo (Physical device interface)
216	Table 131 – get_ProductionDate (Physical device interface)
217	Table 132 – Revision (Physical device interface)
218	Table 133 – get_LogicalDevice (Physical device interface)
219	Table 134 – Type (Physical device interface)
220	Table 135 – PROFInetRevision (Physical device interface)
221	Table 136 – get_PDevStamp (Physical device interface)
222	Table 137 – get_Count (Browse interface)
223	Table 138 – BrowseItems (Browse interface)
224	Table 139 – get_Count2 (Browse interface)
226	Table 140 – BrowseItems2 (Browse interface)
227	Table 141 – Save (Persist interface)
228	Table 142 – Save2 (Persist interface)
233	Figure 17 – Operating state block diagram
234	Figure 18 – Device status model for the common diagnosis Table 143 – get_Name (Logical Device interface)
235	Table 144 – get_Producer (Logical Device interface)
236	Table 145 – get_Product (Logical Device interface)
237	Table 146 – get_SerialNo (Logical Device interface)
238	Table 147 – get_ProductionDate (Logical Device interface)
239	Table 148 – Revision (Logical Device interface)
240	Table 149 – get_ACCO (Logical Device interface)
241	Table 150 – get_RTAuto (Logical Device interface)
242	Table 151 – PROFInetRevision (Logical Device interface)
243	Table 152 – ComponentInfo (Logical Device interface)
244	Table 153 – get_State (State interface)
246	Table 154 – Activate (State interface)
247	Table 155 – Deactivate (State interface)
248	Table 156 – Reset (State interface)
249	Table 157 – AdviseState (State interface)
250	Table 158 – UnadviseState (State interface)
251	Table 159 – get_Time (Time interface)
252	Table 160 – put_Time (Time interface)
253	Table 161 – get_Count (Browse interface)
254	Table 162 – BrowseItems (Browse interface)
255	Table 163 – get_Count2 (Browse interface)
257	Table 164 – BrowseItems2 (Browse interface)
258	Table 165 – GroupError (Group error interface)
260	Table 166 – AdviseGroupError (Group Error interface)
261	Table 167 – UnadviseGroupError (Group Error interface)
263	Table 168 – PingFactor values
265	Figure 19 – ACCO ASE structure
266	Figure 20 – Productive operation of data connections
272	Table 169 – QoS subtypes in the ORPC communication channel
273	Table 170 – QoS subtypes in the RT communication channel Table 171 – QoS Types and Values
275	Table 172 – Epsilon value for connectable data types
277	Table 173 – Quality Codes
278	Figure 21 – Quality code transfer – standard behavior
279	Figure 22 – Startup of a connection Figure 23 – Quality code with communication fault
280	Figure 24 – Quality code when a connection is cleared Figure 25 – Quality code when a connection is deactivated
281	Figure 26 – Quality code during the transfer of “incorrect” connection data
282	Figure 27 – Quality code for provider in “CBAReady” state Figure 28 – Quality code when clearing an object from the provider
283	Figure 29 – Quality code when a connection is forced Figure 30 – Quality code at QoS violation
285	Table 174 – Quality code priority table
290	Figure 31 – Push mode
291	Figure 32 – Pull mode overview
292	Figure 33 – Detailed sequence chart of the pull mode
293	Figure 34 – QoS and ORPC communication channel
294	Figure 35 – QoS Violation within Pull Mode
295	Figure 36 – Monitoring the providers heartbeat Table 175 – Maximum ORPC substitute value apply time
296	Table 176 – Maximum GetConnectionData hold time
297	Figure 37 – State machine RemoteACCO Figure 38 – State machine RemoteACCOProvider
298	Figure 39 – State machine RemoteACCOProviderORPC Figure 40 – State machine ARORPC – Provider
299	Figure 41 – State machine GetConnectionData – Provider Figure 42 – State machine ProviderConnection
300	Figure 43 – State machine ProvConnActivation Figure 44 – State machine WorkerORPC
301	Figure 45 – Communication stack of distributed automation devices
302	Figure 46 – Application relations between devices Figure 47 – Communication relations
303	Table 177 – Usage of RT Variants
304	Figure 48 – RT communication channel Table 178 – Mapping QoS Value to RT cycle time
305	Table 179 – Maximum RT Substitute Value Apply Time
306	Figure 49 – Interaction between provider and consumer
308	Figure 50 – State machine ARSRT – Consumer
309	Figure 51 – State machine ARSRT – Provider
310	Figure 52 – State machine AccoDataCR – Consumer Figure 53 – State machine AccoDataCR – Provider
311	Figure 54 – RT frame layout
312	Figure 55 – Establishing an AccoDataCR
313	Figure 56 – Flowchart of the copy cycle for local connections
317	Figure 57 – State machine connect attempt
324	Figure 58 – Productive operation of data connections (ORPC channel)
325	Figure 59 – Productive operation of data connections (RT channel) Figure 60 – Productive operation of data connections (Local channel)
326	Figure 61 – Data flow for cyclic RT
327	Table 180 – Time Intervals and Timeouts
328	Figure 62 – Failure of the provider in productive operation (ORPC push mode)
329	Figure 63 – Failure of the provider in productive operation (ORPC pull mode)
330	Figure 64 – Scenario 1: Provider failure in productive operation (RT)
331	Figure 65 – Scenario 2: Recovery from provider failure in productive operation (RT) Figure 66 – Failure of the consumer (push mode)
332	Figure 67 – Failure of the consumer (pull mode)
333	Figure 68 – Failure of the consumer
335	Figure 69 – Failure of the provider when setting up connections
336	Figure 70 – Information levels Figure 71 – ACCO ASE status model for the common diagnosis
337	Figure 72 – ACCO ASE status model for the detailed diagnosis
338	Table 181 – Error codes for the ACCO ASE detailed diagnosis
340	Table 182 – AddConnections (ACCO Management interface)
341	Table 183 – RemoveConnections (ACCO Management interface)
343	Table 184 – ClearConnections (ACCO Management interface)
344	Table 185 – SetActivationState (ACCO Management interface)
345	Table 186 – GetInfo (ACCO Management interface)
346	Table 187 – GetIDs (ACCO Management interface)
347	Table 188 – GetConnections (ACCO Management interface)
349	Table 189 – ReviseQoS (ACCO Management interface)
350	Table 190 – get_PingFactor (ACCO Management interface)
351	Table 191 – put_PingFactor (ACCO Management interface)
352	Table 192 – get_CDBCookie (ACCO Management interface)
353	Table 193 – GetConsIDs (ACCO Management interface)
354	Table 194 – GetConsConnections (ACCO Management interface)
355	Table 195 – DiagConsConnections (ACCO Management interface)
356	Table 196 – GetProvIDs (ACCO Management interface)
358	Table 197 – GetProvConnections (ACCO Management interface)
360	Table 198 – GetDiagnosis (ACCO Management interface)
362	Table 199 – Request
369	Table 200 – Connect (ACCO Server interface)
371	Table 201 – Disconnect (ACCO Server interface)
372	Table 202 – DisconnectMe (ACCO Server interface)
373	Table 203 – SetActivation (ACCO Server interface)
374	Table 204 – Ping (ACCO Server interface)
375	Table 205 – Connect2 (ACCO Server interface)
377	Table 206 – GetConnectionData (ACCO Server interface)
379	Figure 73 – Structure of the transmitted connection data
380	Table 207 – OnDataChanged (ACCO Callback interface) Table 208 – Version
381	Table 209 – Flags
382	Table 210 – Gnip (ACCO Callback interface)
383	Table 211 – ReadItems (ACCO Sync interface)
385	Table 212 – WriteItems (ACCO Sync interface)
387	Table 213 – WriteItemsQCD (ACCO Sync interface)
388	Table 214 – GroupError (Group Error interface)
389	Table 215 – AdviseGroupError (Group Error interface)
390	Table 216 – UnadviseGroupError (Group Error interface)
392	Table 217 – ConnectCR (ACCO Server SRT interface)
394	Table 218 – DisconnectCR (ACCO Server SRT interface)
395	Table 219 – Connect (ACCO Server SRT interface)
396	Table 220 – Disconnect (ACCO Server SRT interface)
398	Table 221 – DisconnectMe (ACCO Server SRT interface)
399	Table 222 – SetActivation (ACCO Server SRT interface)
404	Table 223 – Hresult values for access to properties of Custom RT-Auto objects
405	Table 224 – Hresult values for access to properties of the System RT-Auto object Table 225 – Common hresult values on access to properties of RT-Auto objects Table 226 – Quality code for access to properties of Custom RT-Auto objects
406	Table 227 – Quality code for access to properties of the System RT-Auto object Table 228 – get_Name (RT-Auto interface)
407	Table 229 – Revision (RT-Auto interface)
408	Table 230 – ComponentInfo (RT-Auto interface)
409	Table 231 – get_Count (Browse interface)
410	Table 232 – BrowseItems (Browse interface)
412	Table 233 – get_Count2 (Browse interface)
413	Table 234 – BrowseItems2 (Browse interface)
415	Table 235 – get_StateCollection (System properties interface)
416	7.4 ARs Table 236 – get_StampCollection (System Properties interface)
418	Table 237 – CoCreateInstance
419	Table 238 – CoDisconnectObject Table 239 – Call
420	7.5 Summary of FAL classes Table 240 – Distributed automation FAL class summary
421	7.6 Summary of FAL services Table 241 – Assignment of the services to client and server
423	8 Communication model for decentralized periphery 8.1 Concepts
424	Table 242 – Requirements and features
425	Figure 74 – Example of communication between controlling devices and field devices Figure 75 – Example of communication between an engineering station and several controlling and field devices
426	Figure 76 – Example of communication between field devices and a server station Figure 77 – Example of communication between field devices
428	Figure 78 – Structural units of one arbitrary API of an IO device (general)
429	Figure 79 – Example 1 structural units for interfaces and ports within API 0
430	Figure 80 – Example 2 structural units for interfaces and ports within API 0
432	Figure 81 – Overview of application processes
433	Figure 82 – IO device with APs, slots and subslots
436	Figure 83 – Application Process with application process objects (APOs)
437	Figure 84 – Access to a remote APO
438	Figure 85 – Access to a remote APO for provider/consumer association
439	Figure 86 – Example of one AR with two AREPs
440	8.2 ASE data types 8.3 ASEs
441	Figure 87 – Relation of a record data object to one real object
442	Figure 88 – Relation of a record data object to two real objects
444	Table 243 – Persistence behavior for record data objects
445	Table 244 – Read
447	Table 245 – Read Query
449	Table 246 – Write
452	Figure 89 – Overview IO ASE service interactions
459	Table 247 – Set input
460	Table 248 – Set Input IOCS
461	Table 249 – Get Input
462	Table 250 – Get Input IOCS
463	Table 251 – New Input
464	Table 252 – Set input APDU data status
465	Table 253 – New Input APDU Data Status
466	Table 254 – Read Input Data
468	Table 255 – Set Output
469	Table 256 – Set Output IOCS
470	Table 257 – Get Output
471	Table 258 – Get Output IOCS
472	Table 259 – New Output
473	Table 260 – Set Output APDU Data Status
474	Table 261 – New Output APDU Data Status
475	Table 262 – Read Output Data
478	Table 263 – Read Output Substitute Data
480	Table 264 – Write Output Substitute Data
484	Table 265 – Read Logbook
485	Table 266 – Logbook Event
489	Table 267 – Dependencies within channel properties
492	Table 268 – Ext Channel Error type
493	Table 269 – Ext Channel Add Value for Accumulative Info
494	Table 270 – Dependencies within Channel Properties for manufacturer specific diagnosis
495	Table 271 – Read Device Diagnosis
497	Table 272 – Diagnosis Item
503	Table 273 – Diagnosis Event
506	Table 274 – State table Diagnosis entry
507	Table 275 – Functions used in state tables
508	Table 276 – State table maintenance required entry
509	Table 277 – State table maintenance demanded entry
510	Table 278 – State table qualified entry
515	Table 279 – Alarm type
516	Table 280 – Channel Diagnosis Table 281 – Manufacturer Specific Diagnosis Table 282 – Submodule Diagnosis State
517	Table 283 – AR Diagnosis State
518	Table 284 – User Structure Identifier
519	Table 285 – Semantics of Specifier
523	Table 286 – Alarm Notification
527	Table 287 – Alarm Ack
528	Figure 90 – Example of a resource model at the alarm source
533	Table 288 – Module State
535	Table 289 – Usage with respect to CR type
536	Table 290 – Detail
537	Table 291 – ARInfo Table 292 – Ident Info
543	Table 293 – Connect
551	Table 294 – Connect Device Access
553	Table 295 – Release
554	Table 296 – Abort Table 297 – End Of Parameter
555	Table 298 – Application Ready
557	Table 299 – Ready For Companion
558	Table 300 – Read Expected Identification
561	Table 301 – Read Real Identification
564	Table 302 – Read Identification Difference
566	Table 303 – Read AP Data
567	Table 304 – Read I&M0 Filter Data
571	Table 305 – Read I&M0 Data
573	Table 306 – Write I&M1 Data
575	Table 307 – Read I&M1 Data
577	Table 308 – Write I&M2 Data
579	Table 309 – Read I&M2 Data
581	Table 310 – Write I&M3 Data
583	Table 311 – Read I&M3 Data
585	Table 312 – Write I&M4 Data
587	Table 313 – Read I&M4 Data
592	Figure 91 – General isochronous application model (example)
593	Table 314 – Write IsoM Data
595	Table 315 – Read IsoM Data
597	Table 316 – SYNCH Event
598	Figure 92 – ASE relations in an IO device operating in isochronous mode Figure 93 – State machine relations in an IO device operating in isochronous mode
600	Table 317 – Primitives issued by the AL to the SyncCtl state machine Table 318 – Primitive issued by the SyncCtl state machine to the user Table 319 – Primitives issued by the Input state machine to the user Table 320 – Primitive issued by the Output state machine to the user Table 321 – Primitives issued by the SyncCtl to the output state machine
601	Table 322 – Primitives issued by the output to the SyncCtl state machine Table 323 – Primitives issued by the SyncCtl to the input state machine Table 324 – Primitives issued by the output state machine to the AL Table 325 – Primitives issued by the AL to the output state machine
602	Figure 94 – SyncCtl state diagram Table 326 – Primitives issued by the input state machine to the AL Table 327 – Primitives issued by the AL to the input state machine
603	Table 328 – SyncCtl state table
604	Figure 95 – Output state diagram
605	Table 329 – Output state table
609	Figure 96 – Input state diagram
610	Table 330 – Input state table
615	Table 331 – Subslot number for interface submodules
616	Table 332 – Subslot number for port submodules
618	Table 333 – Subslot Number for Interface Submodules Table 334 – Subslot Number for Sync Interface Submodules
619	Table 335 – Sync Properties Role
620	Table 336 – Sync Class Table 337 – Fiber Optic Types
621	Table 338 – Fiber Optic Cable Types
625	Table 339 – Write Expected Port Data
628	Table 340 – Write Adjusted Port Data
630	Table 341 – Read real port data
633	Table 342 – Read Expected Port Data
635	Table 343 – Read Adjusted Port Data
638	Table 344 – Write IR Data
642	Table 345 – Read IR Data
646	Table 346 – Write Sync Data
649	Table 347 – Read Real Sync Data
652	Table 348 – Read Expected Sync Data
655	Table 349 – Read PDev Data
660	Table 350 – Sync State Info
662	Table 351 – Write Fiber Optic Data
665	Table 352 – Read Real Fiber Optic Data
667	Table 353 – Write MRP Interface Data
670	Table 354 – Read MRP Interface Data
672	Table 355 – Write MRP Port Data
674	Table 356 – Read MRP Port Data
676	Table 357 – Write FSU Data
678	Table 358 – Read FSU Data
680	Table 359 – Write Network Component Data
683	Table 360 – Read Network Component Data
685	Table 361 – Read Real Interface Data
689	Table 362 – Set Time
691	Figure 97 – Assignment of communication relationship to application relationship
695	Figure 98 – Implicit application relationship
696	Figure 99 – Example IO application relationship (one-to-one)
697	Figure 100 – Example IO application relationship one-to-many
700	Table 363 – Device Access Table 364 – Companion AR
704	Table 365 – Media Redundancy
705	Table 366 – Frame ID
710	Table 367 – Read AR Data
713	8.4 Behavior of an IO device Figure 101 – Overview ASE state machines for IO device
715	Figure 102 – State diagram application startup IO device
716	Table 368 – State table application startup IO device
722	Table 369 – State table functions for startup IO device
723	Figure 103 – State diagram neighborhood check
724	Table 370 – State table neighborhood check
731	Table 371 – State table functions for neighborhood check
732	Figure 104 – State diagram PD parameter check IO device Table 372 – State table PD parameter check IO device
737	Table 373 – State table functions PD parameter check IO device
738	Table 374 – State table fiber optic maintenance required
739	Table 375 – State table fiber optic maintenance demanded
740	Table 376 – State table fiber optic diagnosis
742	Figure 105 – State diagram for a submodule Table 377 – State table for a submodule
752	Table 378 – State table for plug
754	Table 379 – State table for pull
755	Table 380 – State table of PTCP behavior
756	Table 381 – Functions used by PTCP behavior
757	8.5 Behavior of an IO controller
758	Figure 106 – State diagram IO controller during startup
759	Table 382 – State table IO controller during startup
760	8.6 Application characteristics Table 383 – Functions used by state table IO controller
761	Figure 107 – Example of network topology including slower wireless segments
762	Figure 108 – Example of media redundancy including wireless segments
763	Annex A (informative) Device instances Figure A.1 – Instance model
765	Annex B (informative) Components of an Ethernet interface Figure B.1 – Scheme of an Ethernet interface
766	Figure B.2 – Scheme of an Ethernet interface with bridging ability
767	Figure B.3 – Scheme of an Ethernet interface with optical ports
768	Figure B.4 – Scheme of an Ethernet interface with bridging ability using radio communication Figure B.5 – Scheme of an Ethernet interface with radio communication
769	Annex C (informative) Scheme of MAC address assignment Figure C.1 – Scheme of MAC address assignment
770	Annex D (informative) Collection of objects Figure D.1 – Example for an intersection of IO device, slot, and AR
771	Annex E (informative) Measurement of the fast startup time Figure E.1 – Measurement of the fast startup time
772	Bibliography

Published By	Publication Date	Number of Pages
BSI	2012	774


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Status	Withdrawn
Title	Industrial communication networks. Fieldbus specifications – Application layer service definition. Type 10 elements
Replaces	BS EN 61158-5-10:2008
Publisher	BSI
Committee	GEL/65/3
Pages	774
Publication Date	2012-06-30
Withdrawn Date	2014-10-31
Replaced By	BS EN 61158-5-10:2014
ISBN	978 0 580 71554 9
Standard Number	BS EN 61158-5-10:2012
Identical National Standard Of	EN 61158-5-10:2012, IEC 61158-5-10:2010
Descriptors	Interfaces (data processing), Process control, Communication networks, Communication procedures, Data transmission, Fieldbus, Application layer (OSI), Computer networks, Open systems interconnection, Bus networks, Industrial, Automatic control systems
ICS Codes	35.100.70 - Application layer

BS EN 61158-5-10:2012

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