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HIQuad X
HIMA HIQuad X User Manual
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Concept for HIQuad
X
System
Page
16
of
110
HI
803
211 E Rev. 1.01.00
System bus interf
aces on the rear side of
the ba
se rack
Figure 3:
Example of H51X Mo
no S
ystem
The rack IDs
do not necessarily have to be
arranged as descr
ibed above, but they m
ust be
unique.
To ensure a clearer o
verview, HIMA recom
mends the follo
wing:
Arrange the rac
k IDs in accordance
with Fig
ure 3.
Use red patc
h cables for s
ystem bus A if onl
y system bus A is used.
15
17
Table of Contents
Figure 26: Redundant Connection to H41X Base Rack and Extension Rack
1
Table of Contents
3
Introduction
7
Structure and Use of the Document
7
Target Audience
7
Effective Direction from the Processor Module to the Output Module
7
Writing Conventions
8
Safety Notices
8
Operating Tips
9
Safety Lifecycle Services
10
Safety
11
Intended Use
11
Application in Accordance with the De-Energize to Trip Principle
11
Application in Accordance with the Energize to Trip Principle
11
Use in Fire Alarm Systems
11
Explosion Protection
11
ESD Protective Measures
12
Residual Risk
12
Safety Precautions
12
Emergency Information
12
Concept for Hiquad X
13
Safety and Availability
13
Table 1: Differences of Hiquad H51X Compared to H41X
13
Concept for Hiquad H51X
14
Figure 1: H51X Base Rack Completely Assembled
14
The H51X Mono System
15
Figure 2: Example of Safe H51X Mono Operation (1Oo2)
15
Figure 3: Example of H51X Mono System
16
The H51X Redundancy System
17
Figure 4: Example of Safe H51X Redundant Operation (1Oo2)
17
Figure 5: Example of H51X Redundancy System
19
Concept for Hiquad H41X
20
Figure 6: H41X Base Rack Completely Assembled
20
The H41X Mono System
21
Figure 7: Example of Safe H41X Mono Operation (1Oo2)
21
Figure 8: Example of H41X Mono System
22
The H41X Redundancy System
23
Figure 9: Example of Safe H41X Redundant Operation (1Oo2)
23
Figure 10: Example of H41X Redundancy System
24
Extension Rack
25
Ventilation Concept
26
Measures for Reducing the Temperature
26
Engineering Support
26
Installing the Hiquad X System in the Control Cabinet
26
Table 2: Power Dissipation of Standard Control Cabinets
26
Figure 11: Extension Rack
27
Figure 12: Fan Concept Within the Control Cabinet
27
Table 3: Fan Components as a Function of Power Loss
27
Heat Dissipation
28
Installation Type
28
Natural Convection
28
Note on the Standard
28
Table 4: Definitions for Calculating the Power Dissipation
28
Table 5: Installation Types for Control Cabinets
28
Product Description
29
Backplane
29
19-Inch Frame
29
Figure 13: 19-Inch Frame
29
Table 6: Rack Backplanes
29
Figure 14: Dimensions of the 19-Inch Frame
30
H51X Backplane
31
Supply of the H51X Base Rack
31
Figure 15: Rear View of H51X Backplane
31
Table 7: Connection to the 24 V Power Supply
31
Buffered Voltage for LS1+ and LS2+ in F-PWR 02 Buffer Modules
32
5 V Power Supply for Extension Racks
32
Signaling Relay for F-PWR 02 Buffer Module, XG6
32
Table 8: Spring Terminals for Buffered Voltage
32
Table 9: Spring Terminals for 5 V Power Supply
32
Table 10: Spring Terminals in 5 Signaling Relays for Buffer Module
32
H41X Backplane
33
Supply of the H41X Base Rack
33
Figure 16: Rear View of H41X Backplane
33
5 V Power Supply for Extension Racks
34
Table 11: Connection to the 24 V Power Supply
34
Table 12: Spring Terminals for 5 V Power Supply
34
24 V Auxiliary Voltages for I/O Modules and I/O Processing Module
35
Figure 17: Connection to the 24 V Power Supply of the Cable Plugs (H41X)
35
Table 13: Spring Terminals for 24 V Auxiliary Voltages in I/O Modules
35
Extension Rack Backplane
36
Figure 18: Rear View of Extension Rack Backplane
36
Temperature Monitoring
37
Table 14: Thresholds of the Temperature States
37
Power Supply
38
Figure 19: Mono 24 V Power Supply
38
Figure 20: Redundant 24 V Power Supply
39
Mono H51X Base Rack (24 VDC)
41
Figure 21: Mono Connection to H51X Base Rack (24 VDC)
41
Redundant H51X Base Rack (24 VDC)
42
Figure 22: Redundant Connection to H51X Base Rack (24 VDC)
42
Redundant H51X Base Rack and I/O Level (24 VDC)
43
Figure 23: Redundant Connection to H51X Base Rack (24 VDC) and Redundant I/O Level
43
H51X Base Rack (24 VDC) I/O Level Via F-PWR 02 Buffer Modules (Optional)
44
Figure 24: Mono Connection to H51X Base Rack (24 VDC)
44
Mono H41X Base Rack (24 VDC)
45
Figure 25: Mono Connection to H41X Base Rack
45
Redundant H41X Base Rack (24 VDC)
46
Distribution for Hiquad
47
Figure 27: 24 VDC Distribution for Hiquad X
47
Table 15: Assignment of F 7133 Power Distribution Modules to I/O Module Slots
47
VDC Distribution for H51X
48
Figure 28: Extension Rack Connected to a 5 VDC (H51X)
49
VDC Distribution for H41X
50
Figure 29: Extension Rack Connected to a 5 VDC (H41X)
50
VDC Additional Power Supply (H51X)
51
System Bus
51
Table 16: Allowed Power Consumption in Relation to the Number of Power Supply Units
51
Table 17: Allowed Power Consumption in Relation to the Number of Power Supply Units
51
I/O Bus
52
I/O Watchdog (WD)
52
Modules
53
F-CPU 01 Processor Module
53
Operating System
53
General Cycle Sequence
53
Operating System States
53
Table 18: Operating System States, States Entered
55
Behavior in the Event of Faults
56
Table 19: Operating System States, User Interventions
56
F-IOP 01 I/O Processing Module
57
F-COM 01 Communication Module
57
I/O Modules
58
Scope of Application of the I/O Modules
58
Mounting Position
58
Noise Blanking
59
Effects of Noise Blanking
59
Configuring Noise Blanking
59
Table 21: Example for Calculating the Minimum and Maximum Noise Blanking Time
59
Noise Blanking Sequence
60
Figure 30: Transient Interference
60
Figure 31: Interference Triggers a Safe Response
61
Effective Direction of Noise Blanking
62
Effective Direction from the Input Module to the Processor Module
62
Effective Direction from the Processor Module to the Output Module
62
Figure 32: Effective Direction Associated with Noise Blanking and Output Noise Blanking
62
Communication
63
Licensing
63
Connecting the PADT to the System
63
Licensing
64
Redundancy
65
Processor Module Redundancy
65
Reducing Redundancy
65
Increasing Redundancy
65
Redundancy of I/O Modules
65
Module Redundancy
66
Channel Redundancy
66
System Bus Redundancy
66
Communication Redundancy
66
Safeethernet
66
Standard Protocols
66
Programming
67
Using Variables in a Project
67
Variable Types
68
Initial Value
68
Table 22: Supported Variable Types
68
System Variables and System Parameters
69
Table 23: System Variables at Different Project Levels
69
Resource System Parameters
70
Table 24: Resource System Parameters
72
Use of the Parameters Target Cycle Time and Target Cycle Time Mode
73
Table 25: Settings for Target Cycle Time Mode
73
Maximum Communication Time Slice
74
Calculating the Maximum Duration of Configuration Connections [Ms]
75
The Minimum Configuration Version Parameter
76
Rack System Variables
77
Table 26: System Parameters for Output Variables
77
Table 27: System Parameter for Input Variables
80
Locking and Unlocking the Resource
81
Forcing
82
Time Limits
83
Restricting the Use of Forcing
83
Force Editor
83
Automatic Forcing Reset
84
Forcing and Scalar Events
84
Cycle Sequence
84
User Management
85
PADT User Management
85
Table 28: Access Modes for the PADT User Management
85
PES User Management
86
Default User
86
Table 29: Parameters for User Groups in the PES User Management
87
Setting up PES User Accounts
88
Diagnostics
89
Light Emitting Diodes
89
Diagnostic History
89
Table 30: Blinking Frequencies of the Leds
89
Table 31: Maximum Number of Entries Stored in the Diagnostic History Per Module Type
89
Diagnostic Messages
90
Table 32: Data Field of Diagnostic Message
90
Online Diagnosis
91
Table 33: Diagnostic Information Displayed in the Online View for the Hardware Editor
92
Product Data, Dimensioning
93
Environmental Conditions
93
Dimensioning
93
Table 34: Environmental Conditions
93
Table 35: Dimensioning of a Hiquad X Controller
93
Lifecycle
94
Installation
94
Mechanical Structure
94
Connecting the Field Level
94
Grounding
94
CE-Compliant Structure of the Control Cabinet
95
Surges on Digital Inputs
95
Grounding Connectors
96
Figure 33: Grounding Connectors for Racks
96
Figure 34: Grounding Connections in the Control Cabinet
97
Grounding and Shielding Concept of HIMA Control Cabinets
98
Figure 35: Grounding and Shielding Concept of the HIMA Standard Cabinet
98
Grounding Several Control Cabinets
99
Ungrounded Operation
99
Grounded Operation
99
Figure 36: Control Cabinets with Central Ground
99
Shielding Within the Input and Output Areas
100
Lightning Protection for Data Lines in HIMA Communication Systems
100
Cable Colors
100
Connecting the Supply Voltage
100
Start-Up
101
Starting up the Control Cabinet
101
Test of All Inputs and Outputs
101
Voltage Connection
101
Starting up the PES with Processor Modules (F-CPU 01)
101
Faults
102
Maintenance and Repairs
103
Connecting the Power Supply after a Service Interruption
103
Connecting the Redundant Power Supply
103
Loading Operating Systems
103
Hiquad X Documentation
104
Table 36: Overview of the Hiquad X Documentation
104
Appendix
105
Glossary
105
Index of Figures
106
Index of Tables
107
Index
108
5
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HIMA HIQuad X Specifications
General
Brand
HIMA
Model
HIQuad X
Category
Power distribution unit
Language
English
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HIMA HIQuad H51X
110 pages
HIMA HIQuad H41X
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