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BS EN 16590-3:2014

$198.66

Tractors and machinery for agriculture and forestry. Safety-related parts of control systems – Series development, hardware and software

Published By Publication Date Number of Pages
BSI 2014 68
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This part of EN 16590 provides general principles for the series development, hardware and software of safety-related parts of control systems (SRP/CS) on tractors used in agriculture and forestry, and on selfpropelled ride-on machines and mounted, semi-mounted and trailed machines used in agriculture. It can also be applied to municipal equipment (e.g. street-sweeping machines). It specifies the characteristics and categories required of SRP/CS for carrying out their safety functions.

This part of EN 16590 is applicable to the safety-related parts of electrical/electronic/programmable electronic systems (E/E/PES), as these relate to mechatronic systems. It does not specify which safety functions, categories or performance levels are to be used for particular machines.

Machine specific standards (type-C standards) can identify performance levels and/or categories or they should be determined by the manufacturer of the machine based on risk assessment.

It is not applicable to non-E/E/PES systems (e.g. hydraulic, mechanic or pneumatic).

PDF Catalog

PDF Pages PDF Title
9 1 Scope
2 Normative references
3 Terms and definitions
4 Abbreviated terms
10 5 System design
5.1 Objectives
5.2 General
11 5.3 Prerequisites
5.4 Requirements
5.4.1 Structuring safety requirements
12 5.4.2 Functional safety concept
5.4.2.1 General requirements of functional safety concept
13 5.4.2.2 Specification of the functional safety concept
5.4.3 Technical safety concept
5.4.3.1 General requirements of technical safety concept
14 5.4.3.2 Specification of the technical safety concept
15 6 Hardware
6.1 Objectives
6.2 General
16 6.3 Prerequisites
6.4 Requirements
17 6.5 Hardware categories
18 6.6 Work products
7 Software
7.1 Software development planning
7.1.1 Objectives
19 7.1.2 General
7.1.3 Prerequisites
7.1.4 Requirements
7.1.4.1 Phase determination
7.1.4.2 Process flexibility
7.1.4.3 Process timetable
20 7.1.4.4 Applicability
7.1.4.5 Supporting processes
7.1.4.6 Phases of software development
21 7.1.4.7 Using the tables
22 7.1.5 Work products
7.2 Software safety requirements specification
7.2.1 Objectives
7.2.2 General
7.2.3 Prerequisites
23 7.2.4 Requirements
7.2.4.1 Software safety requirements specification methods
25 7.2.4.2 Non-safety–related functions
7.2.4.3 Level of detail
7.2.4.4 Consistency
7.2.4.5 Hardware and software co-dependency
7.2.4.6 Software safety requirements specification
26 7.2.4.7 Software safety requirements verification
7.2.5 Work products
7.3 Software architecture and design
7.3.1 Objectives
7.3.2 General
7.3.3 Prerequisites
7.3.4 Requirements
7.3.4.1 Software architecture and design methods
27 7.3.4.2 Design method characteristics
28 7.3.4.3 Software architecture structure
7.3.4.4 Level of detail
7.3.4.5 Software architecture traceability
7.3.4.6 Software architecture verification
7.3.4.7 Combination of safety-related software components
29 7.3.5 Work products
7.4 Software module design and implementation
7.4.1 Objectives
7.4.2 General
7.4.3 Prerequisites
7.4.4 Requirements
7.4.4.1 Software module design and implementation methods
37 7.4.4.2 Software module design and coding verification
38 7.4.5 Work products
7.5 Software module testing
7.5.1 Objectives
7.5.2 General
7.5.3 Prerequisites
7.5.4 Requirements
7.5.4.1 Software module testing methods
46 7.5.5 Work products
7.6 Software integration and testing
7.6.1 Objectives
7.6.2 General
47 7.6.3 Prerequisites
7.6.4 Requirements
7.6.4.1 Software integration and test plan
7.6.4.2 Software integration strategy
7.6.4.3 Software integration and test procedures
7.6.4.4 Software integration and test methods
48 7.6.4.5 Elimination of defects
7.6.5 Work products
49 7.7 Software safety validation
7.7.1 Objectives
7.7.2 General
7.7.3 Prerequisites
7.7.4 Requirements
7.7.4.1 Software safety validation methods
50 7.7.4.2 Extent of tests
7.7.4.3 Software safety requirements validation
51 7.7.4.4 Documentation
7.7.4.5 Elimination of defects
7.7.5 Work products
7.8 Software-based parameterisation
7.8.1 Objective
7.8.2 General
7.8.3 Prerequisites
52 7.8.4 Requirements
7.8.4.1 Data integrity
7.8.4.2 Executable code in parameter data
7.8.4.3 Configuration management
7.8.4.4 Software-based parameterisation verification
7.8.5 Work products
54 Annex A (informative)Example of agenda for assessment of functional safety at AgPL = e
A.1 Functions of system
A.2 Hardware
A.3 Safety concept
A.4 Safety analysis and safety data
A.5 Safety design process for phases of life cycle
55 A.6 Software development
A.7 Verification and testing
A.8 Documentation and safety documentation
A.9 Summary and assessment
56 Annex B (informative)Independence by software partitioning
B.1 General
B.2 Terms, definitions and abbreviated terms
58 B.3 Objectives
59 B.4 General
B.5 Requirements
B.5.1 General requirements
B.5.1.1 SRL
B.5.1.2 Software architecture
B.5.2 Several partitions within a single microcontroller
B.5.2.1 General
60 B.5.2.2 Software partitioning methods/measures
B.5.2.3 Software partitioning effectiveness
62 B.5.3 Several partitions within the scope of a microcontroller network
B.5.3.1 General
63 B.5.3.2 Methods for multi-processor partitioning
B.5.3.3 Multi-processor partitioning effectiveness
65 Annex ZA (informative)Relationship between this European Standard and the Essential Requirements of EU Machinery Directive 2006/42/EC
BS EN 16590-3:2014
$198.66