BS EN 60770-3:2014
$198.66
Transmitters for use in industrial-process control systems – Methods for performance evaluation of intelligent transmitters
Published By | Publication Date | Number of Pages |
BSI | 2014 | 62 |
This part of IEC 60770 specifies the following methods.
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Methods for
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assessment of the functionality of intelligent transmitters;
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testing the operational behaviour, as well as the static and dynamic performance of an intelligent transmitter.
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Methodologies for
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determining the reliability and diagnostic features used to detect malfunctions;
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determining the communication capabilities of the intelligent transmitters in a communication network.
The methods and methodologies are applicable to intelligent transmitters, which convert one or more physical, chemical or electrical quantities into digital signals for use in a communication network (as specified in the IEC 61158 series or others) or into analogue electrical signals (as specified in the IEC 60381 series).
The methods and methodologies listed in this part of IEC 60770 are intended for use by:
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manufacturers to determine the performance of their products, and
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users or independent testing laboratories to verify equipment performance specifications.
Manufacturers of intelligent transmitters are urged to apply this part of IEC 60770 at an early stage of development.
This standard is intended to provide guidance for designing evaluations of intelligent transmitters by providing:
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a checklist for reviewing the hardware and software design in a structured way;
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test methods for measuring and qualifying the performance, dependability and operability under various environmental and operational conditions;
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methods for reporting the data obtained.
PDF Catalog
PDF Pages | PDF Title |
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7 | English CONTENTS |
10 | INTRODUCTION |
11 | 1 Scope 2 Normative references |
12 | 3 Terms and definitions |
13 | 4 Design assessment 4.1 General |
14 | 4.2 Transmitter analysis 4.2.1 General |
15 | 4.2.2 Data processing subsystem 4.2.3 Sensor subsystem Figures Figure 1 – Intelligent transmitter model |
16 | 4.2.4 Human interface 4.2.5 Communication interface 4.2.6 Electrical output subsystem |
17 | 4.2.7 Power supply unit 4.2.8 External functionality 4.2.9 Cycle times (ct) 4.3 Aspects to be reviewed 4.3.1 General |
18 | 4.3.2 Functionality Tables Table 1 – Checklist for mapping functionality |
19 | 4.3.3 Configurability Table 2 – Checklist for mapping configurability |
20 | 4.3.4 Hardware configuration Table 3 – Checklist for mapping hardware-configuration |
21 | 4.3.5 Adjustment and tuning Table 4 – Checklist for mapping adjustment and tuning procedures |
22 | 4.3.6 Operability Table 5 – Checklist for mapping operability |
23 | 4.3.7 Dependability Table 6 – Checklist for mapping dependability |
24 | 4.3.8 Manufacturer’s support Table 7 – Checklist for mapping manufacturer’s support |
25 | 4.3.9 Reporting 4.4 Documentary information Table 8 – Reporting format for design review Table 9 – Checklist on available documentation |
26 | 5 Performance testing 5.1 General 5.2 Instrument considerations 5.2.1 General |
27 | 5.2.2 Example of a single variable transmitter 5.2.3 Example of a derived variable transmitter Table 10 – Listing of functions of a single variable transmitter |
28 | 5.3 Measurement considerations 5.3.1 General 5.3.2 Single variables Table 11 – Listing of functions of derived variable transmitter |
29 | 5.3.3 Derived variable 5.4 Test facilities 5.4.1 General |
30 | 5.4.2 Signal generator 5.4.3 Output load/receiver Figure 2 – Basic test set-up |
31 | 5.4.4 Control and data acquisition 5.5 Transmitter under test (testing precautions) 5.6 Reference conditions for performance tests |
32 | 5.7 Test procedures for tests under reference conditions Table 12 – Reference environmental and operational test conditions Table 13 – Procedures for tests under reference conditions |
34 | Figure 3 – Examples of step responses of electrical outputs of transmitters |
35 | 5.8 Test procedures for determination of the effects of influence quantities 5.8.1 General |
37 | 5.8.2 Process domain |
38 | Table 14 – Methods for testing immunity to sensor disturbances – Matrix of instrument properties and tests |
40 | Table 15 – Methods for testing immunity to wiring disturbances |
42 | 5.8.3 Utility domain Table 16 – Methods for testing the immunity to disturbances of the power utilities |
44 | 5.8.4 Environmental domain Table 17 – Methods for testing the immunity to environmental disturbances |
46 | 5.8.5 Time domain 6 Other considerations 6.1 Safety 6.2 Degree of protection provided by enclosures Table 18 – Methods for testing the immunity to degradation in time |
47 | 6.3 Electromagnetic emission 6.4 Variants 7 Evaluation report |
48 | Annex A (informative) Dependability testing A.1 General A.2 Design analysis A.3 Reference conditions |
49 | Figure A.1 – Example schematic of a transmitter |
50 | A.4 Fault injection test for internal instrument failures A.5 Observations A.5.1 General Figure A.2 – Test tool for low impedance circuits and shared circuits |
51 | A.5.2 Reporting and ranking of fault behaviour |
52 | Figure A.3 – Matrix for reporting fault behaviour |
53 | A.6 Human faults A.6.1 Mis-operation test Figure A.4 – Ranking of various types of failure modes |
54 | A.6.2 Maintenance error test A.6.3 Expectations and reporting |
55 | Annex B (informative) Throughput testing B.1 General Figure B.1 – Transmitter in stand-alone configuration |
56 | B.2 Transmitter throughput (stand-alone) B.2.1 Reference conditions B.2.2 Test conditions Figure B.2 – Transmitter as a participant in a fieldbus installation |
57 | B.2.3 Observations and measurements B.3 Throughput in a fieldbus configuration B.3.1 Reference conditions B.3.2 Test conditions |
58 | B.3.3 Observations and measurements B.3.4 Precautions |
59 | Annex C (informative) Function block testing C.1 General C.2 General qualitative checks C.3 Time-dependent function blocks C.4 Time-independent function blocks |
60 | Bibliography |