Shopping Cart

No products in the cart.

IEEE C62.36 2014

$89.38

IEEE Standard Test Methods for Surge Protectors Used in Low-Voltage Data, Communications, and Signaling Circuits

Published By Publication Date Number of Pages
IEEE 2014 142
Guaranteed Safe Checkout
Category:

If you have any questions, feel free to reach out to our online customer service team by clicking on the bottom right corner. We’re here to assist you 24/7.
Email:[email protected]

Revision Standard – Active. Surge protectors for application on multiconductor balanced or unbalanced data, communications, and signaling circuits with voltages equal to or less than 1000 Vrms, or 1200 V dc are covered by this standard. These surge protectors are designed to limit voltage surges, current surges, or both. The methods of testing and criteria for determining the end of life of electrical surge protectors used in low-voltage data, communications, and signaling circuits are described. The surge protectors covered are multiple-component series or parallel combinations of linear or nonlinear elements, packaged for the purpose of limiting voltage, current, or both. This standard is not intended to cover packaged single gas tube, air gap, varistor, or avalanche junction surge-protective devices, which are covered by IEEE Std C62.31(TM), IEEE Std C62.32(TM), IEEE Std C62.33(TM), and IEEE Std C62.35(TM), respectively.

PDF Catalog

PDF Pages PDF Title
1 IEEE Std C62.36™-2014
3 Title page
5 Important Notices and Disclaimers Concerning IEEE Standards Documents
8 Participants
10 Introduction
11 Contents
13 IMPORTANT NOTICE
1. Overview
1.1 Scope
14 1.2 Purpose
2. Normative references
3. Definitions, acronyms, and abbreviations
3.1 Definitions
15 3.2 Acronyms and abbreviations
16 4. Service conditions
4.1 Normal service conditions
4.1.1 Environmental conditions
17 4.1.2 Physical properties
4.1.3 System conditions
4.1.4 Surge ratings of the surge protector under system conditions
4.2 Unusual service conditions
4.2.1 Environmental conditions
18 4.2.2 Physical conditions
4.2.3 System conditions
4.3 Radiation
5. Basic configurations
20 6. Standard design test procedure
6.1 Standard design test criteria
6.2 Statistical procedures
6.3 Test conditions
6.4 Test measurements
7. Surge protector characteristics
7.1 General
21 7.2 DC series resistance
7.2.1 Background
7.2.2 Purpose
7.2.3 Equipment
7.2.4 Protector states subject to test
7.2.5 Procedure
7.2.6 Alternative methods
7.2.7 Suggested test data
22 7.2.8 Requirements
7.2.9 Comments
7.3 Standby current and insulation resistance
7.3.1 Background
7.3.2 Purpose
7.3.3 Equipment
7.3.4 Protector states subject to test
23 7.3.5 Procedure
7.3.6 Alternative method
24 7.3.7 Suggested test data
7.3.8 Requirements
7.3.9 Comments
7.4 DC ringing current
7.4.1 Background
25 7.4.2 Purpose
7.4.3 Equipment
7.4.4 Protector states subject to test
26 7.4.5 Procedure
7.4.6 Alternative methods
27 7.4.7 Suggested test data
7.4.8 Requirements
7.4.9 Comments
28 7.5 Distortion
7.5.1 Background
7.5.2 Purpose
7.5.3 Equipment
29 7.5.4 Equipment states subject to test
30 7.5.5 Procedure
33 7.5.6 Alternative methods
7.5.7 Suggested test data
7.5.8 Requirements
34 7.5.9 Comments
7.6 Capacitance
7.6.1 General capacitance
7.6.2 Background
35 7.6.2.1 Voltage-dependent capacitance
36 7.6.2.2 Separating out the individual capacitive components
37 7.6.3 Equipment
7.6.4 Equipment states subject to test
38 7.6.5 Procedure
7.6.6 Alternative methods
7.6.7 Suggested test data
7.6.8 Requirements
7.6.9 Comments
39 7.7 Inductance
7.7.1 Background
7.7.1.1 Purpose
7.7.1.2 Equipment
7.7.2 Protector states subject to test
7.7.3 Procedure
40 7.7.4 Alternative methods
7.7.5 Suggested test data
7.7.6 Requirements
7.7.7 Comments
41 7.8 Transmission properties: insertion loss, return loss, and phase shift
7.8.1 Background
7.8.2 Purpose
7.8.3 Equipment
7.8.4 Equipment states subject to test
42 7.8.5 Procedures
7.8.5.1 Twisted-pair cable surge protector, no bias
43 7.8.5.2 Twisted-pair cable surge protector, biased
44 7.8.5.3 Coaxial or unbalanced protectors, no bias
45 7.8.5.4 Coaxial or unbalanced protectors, biased
46 7.8.6 Alternative methods
7.8.7 Suggested test data
47 7.8.8 Requirements
7.8.9 Comments
7.9 Longitudinal conversion transfer loss
7.9.1 Background
48 7.9.2 Purpose
7.9.3 Equipment
49 7.9.4 Protector states subject to test
7.9.5 Procedure
50 7.9.6 Alternative methods
7.9.7 Suggested test data
7.9.8 Requirements
7.9.9 Comments
51 8. Surge protector ratings
8.1 General
8.2 DC-limiting voltage
8.2.1 Background
8.2.2 Purpose
8.2.3 Equipment
52 8.2.4 Protector states subject to test
8.2.5 Procedure
8.2.5.1 Test circuits
54 8.2.5.2 Test procedure
55 8.2.6 Alternative method
8.2.6.1 Equipment:
56 8.2.6.2 Procedure
8.2.7 Suggested test data
8.2.8 Requirement
57 8.2.9 Comments
8.3 Impulse-limiting voltage
8.3.1 Background
8.3.2 Purpose
8.3.3 Equipment
58 8.3.4 Protector states subject to test
8.3.5 Procedure
60 8.3.6 Alternative methods
8.3.7 Suggested test data
8.3.8 Requirements
8.3.9 Comments
61 8.4 Transition current for thermally activated devices
8.4.1 Background
8.4.2 Purpose
8.4.3 Equipment
8.4.4 Protector states subject to test
8.4.5 Procedure
63 8.4.6 Alternative methods
8.4.7 Suggested test data
8.4.8 Requirement
8.4.9 Comments
8.5 Time to-trip for thermally activated devices
8.5.1 Background
8.5.2 Purpose
8.5.3 Equipment
64 8.5.4 Protector states subject to test
8.5.5 Procedure
65 8.5.6 Alternative methods
8.5.6.1 Equipment
66 8.5.6.2 Procedure
67 8.5.7 Suggested test data
68 8.5.8 Requirements
8.5.9 Comments
8.6 Impulse reset
8.6.1 Background
8.6.2 Purpose
8.6.3 Equipment
69 8.6.4 Protector states subject to test
8.6.5 Procedures
71 8.6.6 Alternate methods
8.6.7 Suggested test data
8.6.8 Requirements
72 8.6.9 Comments
8.7 AC life (durability)
8.7.1 Background
8.7.2 Purpose
8.7.3 Equipment
8.7.4 Protector states subject to test
8.7.5 Procedure
75 8.7.6 Alternative methods
8.7.7 Suggested test data
8.7.8 Requirements
8.7.9 Comments
8.8 Impulse life (durability)
8.8.1 Background
76 8.8.2 Purpose
8.8.3 Equipment
8.8.4 Protector states subject to test
77 8.8.5 Procedure
78 8.8.6 Alternative methods
79 8.8.7 Suggested test data
8.8.8 Requirements
8.8.9 Comments
8.9 Maximum single-impulse discharge
8.9.1 Background
8.9.2 Purpose
8.9.3 Equipment
80 8.9.4 Protector states subject to test
8.9.5 Procedure
8.9.6 Alternative methods
81 8.9.7 Suggested test data
8.9.8 Requirements
8.9.9 Comments
8.10 Voltage reset (electronic current limiters)
8.10.1 Background
8.10.2 Purpose
82 8.10.3 Equipment
8.10.4 Protector states subject to test
8.10.5 Procedure
83 8.10.6 Alternative methods
8.10.7 Suggested test data
8.10.8 Requirements
8.10.9 Comments
84 8.11 Multiport coupling
8.11.1 Background
8.11.2 Purpose
8.11.3 Standards that address multiport coupling
8.11.3.1 IEEE Std C62.50™
8.11.3.2 ANSI/TIA-1194
8.11.3.3 ITU-T Recommendation K.44
85 8.12 Transverse surge generation
8.12.1 Background
8.12.2 Purpose
8.12.3 Equipment and test circuit (Figure 34)
86 8.12.4 Protector states subject to test
8.12.5 Procedure
8.12.5.1 Impulse calibration
8.12.5.2 Voltage probe calibration
87 8.12.5.3 Current probe calibration
8.12.5.4 Transverse voltage measurement
8.12.6 Alternative methods
8.12.7 Suggested test data
88 8.12.8 Requirements
8.12.9 Comments
8.13 In-line surge protector: protected port surge current let-through
8.13.1 Background
89 8.13.2 Purpose
8.13.3 Equipment and test circuits
90 8.13.4 Protector states subject to test
8.13.5 Procedure
8.13.6 Suggested test data
8.13.7 Requirements
8.13.8 Comments
91 8.14 In-line surge protector: surge series resistance
8.14.1 Background
8.14.2 Purpose
8.14.3 Equipment
8.14.4 Protector states subject to test
8.14.5 Procedure
93 8.14.6 Alternative methods
8.14.7 Suggested test data
8.14.8 Requirements
8.14.9 Comments
8.15 In-line surge protector: protected-port ground potential rise
8.15.1 Background
8.15.1.1 Lightning ground potential rise
94 8.15.1.2 In-line surge protector: differential ground potential rise surge
95 8.15.2 Purpose
8.15.3 Equipment and test circuits
8.15.4 Protector states subject to test
8.15.5 Procedure
8.15.5.1 Differential ground potential rise test levels
96 8.15.5.2 Procedure steps
8.15.6 Alternative methods
8.15.7 Suggested test data
97 8.15.8 Requirements
8.15.9 Comments
8.16 In-line surge protector: protected-port ground lead inductive voltage spike
8.16.1 Background
98 8.16.2 Purpose
8.16.3 Equipment and test circuits
8.16.4 Protector states subject to test
8.16.5 Procedure
8.16.5.1 Figure 42 circuit values
99 8.16.5.2 Procedure steps
8.16.6 Alternative methods
8.16.7 Suggested test data
100 8.16.8 Requirements
8.16.9 Comments
8.17 Environmental cycling with impulse surges
8.17.1 Background
8.17.2 Purpose
8.17.3 Equipment
8.17.4 Protector states subject to test
101 8.17.5 Procedure
102 8.17.6 Alternative methods
8.17.7 Suggested test data
8.17.8 Requirements
103 8.17.9 Comments
8.18 Environmental cycling with ac exposure
8.18.1 Background
8.18.2 Purpose
8.18.3 Equipment
8.18.4 Protector states subject to test
104 8.18.5 Procedures
8.18.6 Alternative methods
8.18.7 Suggested test data
105 8.18.8 Requirements
8.18.9 Comments
9. Failure modes
106 Annex A (informative) Examples of internal arrangements of surge-limiting devices
109 Annex B (informative) Test measurement techniques
B.1 General
B.2 Safety
B.3 Oscilloscopes
B.4 Voltage measurements
111 B.5 Current measurements
112 Annex C (informative) Impulse generators
C.1 Introduction
C.2 Types of impulse generator
C.3 Impulse generator parameters
115 C.4 Impulse generators typically used for surge protector testing
118 C.5 Impulse generator circuits
122 C.6 Combination-wave generators
125 C.7 Expanding single-output generators to multiple output
128 C.8 Generator variants
132 Annex D (informative) Cable discharge events
D.1 Background
D.2 Event characteristics
133 D.3 Test methods
135 Annex E (informative) Gas discharge tube oscillation
E.1 Gas discharge tube-based surge protector oscillation test
140 Annex F (informative) Bibliography
IEEE C62.36 2014
$89.38