BSI DD IEC/TS 62657-2:2011:2012 Edition
$215.11
Industrial communication Networks. Wireless communication network – Coexistence management
Published By | Publication Date | Number of Pages |
BSI | 2012 | 74 |
This part of IEC 62657, which is a technical specification, specifies the fundamental assumptions, concepts, parameters, and procedure for wireless communication coexistence.
This specification provides guidelines, requirements, and best practices for wireless communications’ availability and performance, covering the life cycle of wireless communication coexistence to help the work of all persons involved with the relevant responsibilities to cope with the critical aspects in each phase of wireless communication coexistence management in an automation plant.
Additionally this specification provides a common point of reference for wireless communication coexistence for industrial automation sites as a homogeneous guideline to help the users assess and gauge their plant efforts. Life cycle aspects include: planning, designing, installation, implementation, operation, maintenance, administration and training.
This specification deals with the operational aspects of wireless communication coexistence regarding both the static human/tool-organization and the dynamic network self-organization.
This technical specification specifies coexistence parameters and how they are used in an application requiring wireless coexistence.
NOTE Measurement methods of parameters could be the subject of a later edition.
PDF Catalog
PDF Pages | PDF Title |
---|---|
4 | CONTENTS |
8 | FOREWORD |
10 | INTRODUCTION |
11 | 1 Scope 2 Normative references 3 Terms, definitions, abbreviated terms and conventions 3.1 Terms and definitions |
17 | 3.2 Abbreviated terms |
18 | 3.3 Conventions 4 Coexistence concept in industrial automation 4.1 Overview |
19 | 4.2 Objective |
20 | Tables Table 1 – Application communication requirements and profiles |
21 | 4.3 Necessity to implement a coexistence management Figures Figure 1 – Area of consideration |
22 | Figure 2 – Examples of wireless equipment in industrial environments |
23 | 4.4 Interference potential |
25 | 4.5 Ancillary conditions 4.6 Best practices to achieve coexistence Figure 3 – Progression of expense to achieve coexistence corresponding to the application classes |
26 | Figure 4 – Separation of wireless communication systems according to frequency and time |
27 | 4.7 Coexistence conceptual model |
28 | 4.8 Coexistence management and selection of a wireless communication solution Figure 5 – Coexistence conceptual model |
29 | 4.9 Coexistence management system Figure 6 – Selection of a wireless communication systemand coexistence management process |
30 | 5 Coexistence management parameters 5.1 General 5.2 Explanation of coexistence parameters |
31 | Figure 7 – Communication load in case of two wireless devices |
32 | Figure 8 – Communication load in the case of several wireless devices |
33 | Figure 9 – Cut-off frequencies derived from maximum power level |
34 | Figure 10 – Duty cycle Table 2 – Application profile dependent observation time values |
36 | Figure 11 – Maximum dwell time |
37 | Figure 12 – Maximum transmitter sequence |
39 | Figure 13 – Distance of the radio components |
40 | Figure 14 – Power spectral density of an IEEE 802.15.4 system |
43 | Figure 15 – Minimum transmitter gap |
44 | Figure 16 – Communication cycle, transmission interval and production cycle |
45 | Figure 17 – Example of the density functions of transmission delay |
46 | Figure 18 – Example of the distribution functions of transmission time |
47 | Figure 19 – Transmitter spectral mask of an IEEE 802.15.4 system |
48 | Figure 20 – Example of distribution functions of the update time |
49 | 6 Coexistence management information structures 6.1 General 6.2 General plant characteristic Figure 21 – Principle for use of coexistence parameters |
50 | 6.3 Application communication requirements Figure 22 – Parameters to describe the general plant characteristic Table 3 – List of parameters used to describe the general plant characteristic |
51 | Figure 23 – Parameters to describe automation communication requirements Table 4 – List of parameters used to describe the requirements influencing the characteristic of wireless solutions |
52 | 6.4 Characteristic of wireless communication system and device type Figure 24 – Parameters to describe network and device type Table 5 – List of parameters used to describe performance requirements |
53 | Table 6 – List of parameters used to describe the wireless communication system type |
54 | Figure 25 – Power spectral density and transmitter spectral mask of a DECT system Figure 26 – Medium utilization in time of a DECT system |
55 | 6.5 Characteristic of wireless communication solution Table 7 – List of parameters used to describe transmitter of a wireless device type Table 8 – List of parameters used to describe receiver of a wireless device type |
56 | Figure 27 – Parameters to describe network and device type Table 9 – List of parameters used to describe wireless network solution |
57 | 7 Coexistence management process 7.1 General Table 10 – List of parameters used to describe transmitter of a wireless device solution Table 11 – List of parameters used to describe receiver of a wireless device solution |
58 | 7.2 Establishment of a coexistence management system |
60 | 7.3 Maintaining coexistence management system 7.4 Phases |
64 | Figure 28 – Planning of a wireless communication system in thecoexistence management process |
67 | 8 Coexistence parameter templates Figure 29 – Planning of a wireless communication system in the coexistence management process |
68 | Table 12 – Template to describe the general plant characteristic Table 13 – Template to describe the automation communication requirements |
69 | Table 14 – Template used to describe the wireless communication system type Table 15 – Template used to describe a wireless device type |
70 | Table 16 – Template used to describe the wireless network solution Table 17 – Template used to describe a wireless device solution |
71 | Bibliography |