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- Core standards
- Process standards
- Support standards
- Reliability and availability
- Maintainability and supportability
- Risk assessment
- System dependability
- Associated standards
1. Core standards
1.1 Management
Publication | Title |
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IEC 60300-1:2014
Abstract |
Dependability management – Part 1: Guidance for management and application IEC 60300-1:2014 establishes a framework for dependability management. It provides guidance on dependability management of products, systems, processes or services involving hardware, software and human aspects or any integrated combinations of these elements. It presents guidance on planning and implementation of dependability activities and technical processes throughout the life cycle taking into account other requirements such as those relating to safety and the environment. This standard gives guidelines for management and their technical personnel to assist them to optimize dependability |
IEC 60300-2:2004 |
Dependability management – Part 2: Guidelines for dependability management |
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1.2 Vocabulary
Publication | Title |
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IEC 60050-191:1990 |
International Electrotechnical Vocabulary (IEV) – Chapter 191: Dependability and quality of service |
International Electrotechnical Vocabulary (IEV) – Part 192: Dependability | |
International Electrotechnical Vocabulary (IEV) – Part 692: Generation, transmission and distribution of electrical energy – Dependability and quality of service of electric power systems | |
Abstract |
Mathematical expressions for reliability, availability, maintainability and maintenance support terms IEC 61703:2016 provides mathematical expressions for selected reliability, availability, maintainability and maintenance support measures defined in IEC 60050-192:2015. In addition, it introduces some terms not covered in IEC 60050-192:2015. They are related to aspects of the system of item classes (see hereafter). According to IEC 60050-192:2015, dependability [192-01-22] is the ability of an item to perform as and when required and an item [192-01-01] can be an individual part, component, device, functional unit, equipment, subsystem, or system. To account for mathematical constraints, this standard splits the items between the individual items considered as a whole (e.g. individual components) and the systems made of several individual items. It provides general considerations for the mathematical expressions for systems as well as individual items but the individual items which are easier to model are analysed in more detail with regards to their repair aspects. This standard is mainly applicable to hardware dependability, but many terms and their definitions may be applied to items containing software. This second edition cancels and replaces the first edition published in 2001. This edition constitutes a technical revision. This edition includes the following significant technical changes with respect to the previous edition: Keywords: mathematical expressions for dependability |
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2. Process standards
2.1 Reliability and availability
Publication | Title |
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IEC 60300-3-1:2003
Abstract |
Dependability management – Part 3-1: Application guide – Analysis techniques for dependability – Guide on methodology Gives a general overview of commonly used dependability analysis techniques. It describes the usual methodologies, their advantages and disadvantages, data input and other conditions for using various techniques. It is an introduction to selected methodologies and is intended to provide the necessary information for choosing the most appropriate analysis methods. |
IEC 60300-3-17 Abstract |
Dependability management – Part 3-17: Application guide – Availability
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IEC 60300-3-18 Abstract |
Dependability management – Part 3-18: Application guide – Relability
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2.2 Maintainability and supportability
Publication | Title |
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IEC 60300-3-10:2001 Abstract |
Dependability management – Part 3-10: Application guide – Maintainability
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Abstract |
Dependability management – Part 3-12: Application guide – Integrated logistics support An application guide for establishing an integrated logistic support (ILS) management system. It is intended to be used by a wide range of suppliers including large and small companies wishing to offer a competitive and quality item which is optimized for the purchaser and supplier for the complete life cycle of the item. It also includes common practices and logistic data analyses that are related to ILS. This edition includes the following significant technical changes with respect to the previous edition: |
IEC 60300-3-14:2004 Abstract |
Dependability management – Part 3-14: Application guide – Maintenance and maintenance support Describes a framework for maintenance and maintenance support and the various minimal common practices that should be undertaken. Outlines in a generic manner, management, processes and techniques related to maintenance and maintenance support that are necessary to achieve adequate dependability to meet the operational needs of the customer. Applicable to items, which include all types of products, equipment and systems (hardware and associated software). Most of these require a certain level of maintenance to ensure that their required functionality, dependability, capability, economic, safety and regulatory requirements are achieved. |
Abstract |
Obsolescence management – Application guide IEC 62402:2019 provides requirements and guidance for obsolescence management applicable to any organization that is dependent on another organization to obtain value from the usefulness of the items that it provides. A cost-effective obsolescence management process and the activities used to implement the process are applicable throughout all phases of an item’s life cycle. This document covers the following areas: Keywords: obsolescence management |
62402-1 |
Obsolescence management – Part 1: Process, Policy and Plan
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62402-2 |
Obsolescence management – Part 2: Forecasting obsolescence cost
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62402-3 |
Obsolescence management – Part 3: Data repository and exchange of information regarding change and discontinuance of products and items
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Abstract |
Spares part provisioning IEC 62550:2017 describes requirements for spare parts provisioning as a part of supportability activities that affect dependability performance so that continuity of operation of products, equipment and systems for their intended application can be sustained. This document is intended for use by a wide range of suppliers, maintenance support organizations and users and can be applied to all items. |
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2.3 Risk assessment
Publication | Title |
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IEC 60300-3-9:1995 |
Dependability management – Part 3: Application guide – Section 9: Risk analysis of technological systems |
Abstract |
Risk management – Risk assessment techniques IEC 31010:2019 is published as a double logo standard with ISO and provides guidance on the selection and application of techniques for assessing risk in a wide range of situations. The techniques are used to assist in making decisions where there is uncertainty, to provide information about particular risks and as part of a process for managing risk. The document provides summaries of a range of techniques, with references to other documents where the techniques are described in more detail. This second edition cancels and replaces the first edition published in 2009. This edition constitutes a technical revision. This edition includes the following significant technical changes with respect to the previous edition: Keywords: uncertainty, risk management |
IEC 62198:2013 Abstract |
Managing risk in projects – Application guidelines
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2.4 System dependability
Publication | Title |
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Abstract |
Open systems dependability Provides guidance in relation to a set of requirements placed upon system life cycles in order for an open system to achieve open systems dependability. This document elaborates on IEC 60300-1 by providing details of the changes needed to accommodate the characteristics of open systems. It defines process views based on ISO/IEC/IEEE 15288:2015, which identifies the set of system life cycle processes. This document is applicable to life cycles of products, systems, processes or services involving hardware, software and human aspects or any integrated combinations of these elements. For open systems, security is especially important since the systems are particularly exposed to attack. This document can be used to improve the dependability of open systems and to provide assurance that the process views specific to open systems achieve their expected outcomes. It helps an organization define the activities and tasks that need to be undertaken to achieve dependability objectives in an open system, including dependability related communication, dependability assessment and evaluation of dependability throughout system life cycles. Keywords: dependability of open systems |
Abstract |
Dependability management – Part 3-15: Application guide – Engineering of system dependability Provides guidance for an engineering system’s dependability and describes a process for realization of system dependability through the system life cycle. This standard is applicable to new system development and for enhancement of existing systems involving interactions of system functions consisting of hardware, software and human elements. |
Abstract |
Application guidelines – Technical and financial processes for implementing asset management systems This technical specification, shows how the IEC dependability suite of standards, systems engineering and the IFRS and IAS standards can support the requirements of asset management, as described by the ISO 5500x suite of standards. It provides: Keywords: asset management, decision-making processes, ISO 5500x |
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3 .Support standards
3.1.1 Reliability and availability support – analysis techniques
Publication | Title |
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Abstract |
Failure modes and effects analysis (FMEA and FMECA) IEC 60812:2018 explains how failure modes and effects analysis (FMEA), including the failure modes, effects and criticality analysis (FMECA) variant, is planned, performed, documented and maintained. The purpose of FMEA is to establish how items or processes might fail to perform their function so that any required treatments could be identified. An FMEA provides a systematic method for identifying modes of failure together with their effects on the item or process, both locally and globally. It may also include identifying the causes of failure modes. Failure modes can be prioritized to support decisions about treatment. Where the ranking of criticality involves at least the severity of consequences, and often other measures of importance, the analysis is known as failure modes, effects and criticality analysis (FMECA). This document is applicable to hardware, software, processes including human action, and their interfaces, in any combination. An FMEA can be used in a safety analysis, for regulatory and other purposes, but this being a generic standard, does not give specific guidance for safety applications. This third edition cancels and replaces the second edition published in 2006. This edition constitutes a technical revision.This edition includes the following significant technical changes with respect to the previous edition: Keywords: failure modes and effects analysis (FMEA), failure modes effects and criticality analysis (FMECA) |
IEC 61025:2006 Abstract |
Fault tree analysis (FTA) Describes fault tree analysis and provides guidance on its application to perform an analysis, identifies appropriate assumptions, events and failure modes, and provides identification rules and symbols. |
Abstract | Reliability block diagrams This international standard describes: Keywords: reliability block diagram (RBD) |
Abstract |
Application of Markov techniques This international standard provides guidance on the application of Markov techniques to model and analyze a system and estimate reliability, availability, maintainability and safety measures. This standard is applicable to all industries where systems, which exhibit state-dependent behaviour, have to be analyzed. The Markov techniques covered by this standard assume constant time-independent state transition rates. Such techniques are often called homogeneous Markov techniques. |
Abstract |
Weibull analysis Provides methods for analysing data from a Weibull distribution using continuous parameters such as time to failure, cycles to failure, mechanical stress, etc. This standard is applicable whenever data on strength parameters, e.g. times to failure, cycles, stress, etc. are available for a random sample of items operating under test conditions or in-service, for the purpose of estimating measures of reliability performance of the population from which these items were drawn. The main changes with respect to the previous edition are as follows: the title has been shortened and simplified to read “Weibull analysis”; and provision of methods for both analytical and graphical solutions have been added. |
Abstract |
Analysis techniques for dependability – Event tree analysis (ETA) Specifies the consolidated basic principles of event tree analysis (ETA) and provides guidance on modelling the consequences of an initiating event as well as analysing these consequences qualitatively and quantitatively in the context of dependability and risk related measures |
Abstract |
Analysis techniques for dependability – Petri net techniques Provides guidance on a Petri net based methodology for dependability purposes. It supports modelling a system, analysing the model and presenting the analysis results. This methodology is oriented to dependability-related measures with all the related features, such as reliability, availability, production availability, maintainability and safety (e.g. safety integrity level (SIL) [2] related measures). |
Abstract |
Probabilistic risk analysis of technological systems – Estimation of final event rate at a given initial state Provides guidance on probabilistic risk analysis (hereafter referred to as risk analysis) for the systems composed of electrotechnical items and is applicable (but not limited) to all electrotechnical industries where risk analyses are performed. This document deals with the following topics from the perspective of risk analysis: defining the essential terms and concepts; specifying the types of events; classifying the occurrences of events; describing the usage of modified symbols and methods of graphical representation for ETA, FTA and Markov techniques for applying those modified techniques complementarily to the complex systems; suggesting ways to handle the event frequency/rate of complex systems; suggesting ways to estimate the event frequency/rate based on risk monitoring; providing illustrative and practical examples. Keywords: probabilistic risk analysis, effects of uncertainty, events and associated risks |
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3.1.2 Reliability and availability support – data estimation and assessment
Publication | Title |
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Abstract |
Dependability management – Part 3-2: Application guide – Collection of dependability data from the field This part of IEC 60300 provides guidelines for the collection of data relating to reliability, maintainability, availability and maintenance support performance of items operating in the field. It deals in general terms with the practical aspects of data collection and presentation and briefly explores the related topics of data analysis and presentation of results. Emphasis is made on the need to incorporate the return of experience from the field in the dependability process as a main activity. |
IEC 60319:1999 |
Presentation and specification of reliability data for electronic components Describes the information needed for characterizing reliability of a component, and also the detailed requirements for reporting reliability data. Gives guidance to component users as to how they should specify their reliability requirements to component manufacturers. The data, derived from laboratory tests, should enable circuit and equipment designers to evaluate the reliability of circuits and systems. |
IEC 60863:1986 |
Presentation of reliability, maintainability and availability predictions |
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Reliability data analysis techniques – Procedures for comparison of two constant failure rates and two constant failure (event) intensities Specifies procedures to compare two observed – failure rates; – failure intensities; – rates/intensities of relevant events. The procedures are used to determine whether an apparent difference between the two sets of observations can be considered statistically significant. Numerical methods and a graphical procedure are prescribed. Simple practical examples are provided to illustrate how the procedures can be applied. |
Abstract |
Electronic components – Reliability – Reference conditions for failure rates and stress models for conversion IEC 61709:2017 gives guidance on the use of failure rate data for reliability prediction of electric components used in equipment. The method presented in this document uses the concept of reference conditions which are the typical values of stresses that are observed by components in the majority of applications. Reference conditions are useful since they provide a known standard basis from which failure rates can be modified to account for differences in environment from the environments taken as reference conditions. Each user can use the reference conditions defined in this document or use their own. When failure rates stated at reference conditions are used it allows realistic reliability predictions to be made in the early design phase. The stress models described herein are generic and can be used as a basis for conversion of failure rate data given at these reference conditions to actual operating conditions when needed and this simplifies the prediction approach. Conversion of failure rate data is only possible within the specified functional limits of the components. This document also gives guidance on how a database of component failure data can be constructed to provide failure rates that can be used with the included stress models. Reference conditions for failure rate data are specified, so that data from different sources can be compared on a uniform basis. If failure rate data are given in accordance with this document then additional information on the specified conditions can be dispensed with. This document does not provide base failure rates for components – rather it provides models that allow failure rates obtained by other means to be converted from one operating condition to another operating condition. The prediction methodology described in this document assumes that the parts are being used within its useful life. The methods in this document have a general application but are specifically applied to a selection of component types as defined in Clauses 6 to 20 and I.2. This third edition cancels and replaces the second edition, published in 2011. This edition constitutes a technical revision. This third edition is a merger of IEC 61709:2011 and IEC TR 62380:2004. This edition includes the following significant technical changes with respect to the previous edition: addition of 4.5 Components choice, 4.6 Reliability growth during the deployment phase of new equipment, 4.7 How to use this document, and of Clause 19 Printed circuit boards (PCB) and Clause 20 Hybrid circuits with respect to IEC TR 62380; addition of failure modes of components in Annex A; modification of Annex B, Thermal model for semiconductors, adopted and revised from IEC TR 62380; modification of Annex D, Considerations on mission profile; modification of Annex E, Useful life models, adopted and revised from IEC TR 62380; revision of Annex F (former B.2.6.4), Physics of failure; addition of Annex G (former Annex C), Considerations for the design of a data base on failure rates, complemented with parts of IEC 60319; addition of Annex H, Potential sources of failure rate data and methods of selection; addition of Annex J, Presentation of component reliability data, based on IEC 60319. Keywords: failure rate data, reliability prediction of electric components |
Abstract |
Power law model – Goodness-of-fit tests and estimation methods IEC 61710:2013 specifies procedures to estimate the parameters of the power law model, to provide confidence intervals for the failure intensity, to provide prediction intervals for the times to future failures, and to test the goodness-of-fit of the power law model to data from repairable items. It is assumed that the time to failure data have been collected from an item, or some identical items operating under the same conditions (e.g. environment and load). This second edition cancels and replaces the first edition, published in 2000, and constitutes a technical revision. The main changes with respect to the previous edition are listed below: the inclusion of an additional Annex C on Bayesian estimation for the power law model. Keywords: power law model, Bayesian estimation, reliability of repairable items |
Abstract |
Equipment reliability – Reliability assessment methods This international standard describes early reliability assessment methods for items based on field data and test data for components and modules. It is applicable to mission, safety and business critical, high integrity and complex items. It contains information on why early reliability estimates are required and how and where the assessment would be used. |
IEC 62309:2004 Abstract |
Dependability of products containing reused parts – Requirements for functionality and tests
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Abstract |
Demonstration of dependability requirements – The dependability case Provides guidance on the content and application of a dependability case and establishes general principles for the preparation of a dependability case. This standard is written in a basic project context where a customer orders a system that meets dependability requirements from a supplier and then manages the system until its retirement. The methods provided in this standard may be modified and adapted to other situations as needed. The dependability case is normally produced by the customer and supplier but can also be used and updated by other organizations. For example, certification bodies and regulators may examine the submitted case to support their decisions and users of the system may update/expand the case, particularly where they use the system for a different purpose. Keywords: dependability, reliability, availability, maintainability, supportability, usability, testability, durability. |
IEC/TR 62380:2004 |
Reliability data handbook – Universal method for reliability prediction of electronic components, PCBs and equipment |
A global methodology for reliability data prediction of electronic components
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Electric Components – Reliability – Reference failure rates at reference conditions.
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3.1.3 Reliability and availability support – reliability testing and screening
Publication | Title |
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IEC 60300-3-5:2001
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Dependability management – Part 3-5: Application guide – Reliability test conditions and statistical test principles Provides guidelines for the planning and performing of reliability tests and the use of statistical methods to analyse test data. Describes the tests related to repaired and non-repaired items together with tests for constant and non-constant failure intensity and constant and non-constant failure rate. The purpose of these tests is to discover weaknesses in the design and to undertake actions to eliminate these weaknesses and thereby improve performance, quality, safety, robustness, reliability and availability and reduce costs. |
IEC 60300-3-7:1999 |
Dependability management – Part 3-7: Application guide – Reliability stress screening of electronic hardware |
IEC 60410:1973 |
Sampling plans and procedures for inspection by attributes |
Abstract |
Equipment reliability testing – Part 2: Design of test cycles It applies to the design of operating and environmental test cycles referred to in 8.1 and 8.2 of IEC 60605-1:1978. |
IEC 60605-3-1:1986 |
Equipment reliability testing – Part 3: Preferred test conditions. Indoor portable equipment – Low degree of simulation |
IEC 60605-3-2:1986 |
Equipment reliability testing – Part 3: Preferred test conditions. Equipment for stationary use in weather protected locations – High degree of simulation |
IEC 60605-3-3:1992 |
Equipment reliability testing – Part 3: Preferred test conditions – Section 3: Test cycle 3: Equipment for stationary use in partially weather protected locations – Low degree of simulation |
IEC 60605-3-4:1992 |
Equipment reliability testing – Part 3: Preferred test conditions – Section 4: Test cycle 4: Equipment for portable and non-stationary use – Low degree of simulation |
IEC 60605-3-5:1996 |
Equipment reliability testing – Part 3: Preferred test conditions – Section 5: Test cycle 5: Ground mobile equipment – Low degree of simulation |
IEC 60605-3-6:1996 |
Equipment reliability testing – Part 3: Preferred test conditions – Section 6: Test cycle 6: Outdoor transportable equipment – Low degree of simulation |
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Equipment reliability testing – Part 4: Statistical procedures for exponential distribution – Point estimates, confidence intervals, prediction intervals and tolerance intervals Provides statistical methods for evaluating point estimates, confidence intervals, prediction intervals and tolerance intervals for the failure rate of items whose time to failure follows an exponential distribution. |
IEC 60605-5:1982 |
Equipment reliability testing. Part 5 : Compliance test plans for success ratio |
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Equipment reliability testing – Part 6: Tests for the validity and estimation of the constant failure rate or constant failure intensity Specifies procedures to verify the assumption of a constant failure rate or constant failure intensity as defined in IEC 60050(191). These procedures are applicable whenever it is necessary to verify these assumptions. This may be due to a requirement or for the purpose of assessing the behaviour in time of the failure rate or the failure intensity. The major technical changes with respect to the previous edition concern the inclusion of corrected formulae for tests previously included in a corrigendum, and the addition of new methods for the analysis of multiple items. |
IEC 61070:1991 Abstract |
Compliance test procedures for steady-state availability Specifies techniques for availability performance testing of frequently maintained items when the availability performance measure used is either steady-state availability or steady-state unavailability. Applies to compliance testing of the steady-state availability. |
Abstract |
Reliability testing – Compliance test plans for success ratio Specifies procedures for applying and preparing compliance test plans for success ratio or failure ratio. The procedures are based on the assumption that each trial is statistically independent. Supersedes IEC 60605-5 and its amendment 1. |
Abstract | Reliability testing – Compliance tests for constant failure rate and constant failure intensity IEC 61124:2024 gives a number of optimized test plans, the corresponding border lines and characteristics. In addition, the algorithms for designing test plans using a spreadsheet program are also given, together with guidance on how to choose test plans. This document specifies procedures to test whether an observed value of |
Abstract |
Reliability stress screening – Part 1: Repairable assemblies manufactured in lots This part of IEC 61163 describes particular methods to apply and optimize reliability stress screening processes for lots of repairable hardware assemblies, in cases where the assemblies have an unacceptably low reliability in the early failure period, and when other methods, such as reliability growth programmes and quality control techniques, are not applicable. |
Abstract |
Reliability stress screening – Part 2: Electronic components IEC 61163-2:2020 provides guidance on RSS techniques and procedures for electrical, electronic, and mechanical components. This document is procedural in nature and is not, and cannot be, exhaustive with respect to component technologies due to the rapid rate of developments in the component industry. This document is: a) intended for component manufacturers as a guideline; b) intended for component users as a guideline to negotiate with component manufacturers on RSS requirements; c) intended to allow the planning of an RSS process in house to meet reliability requirements or to allow the re-qualification of components for specific, upgraded, environments; d) intended as a guideline to sub-contractors who provide RSS as a service. This document is not intended to provide test plans for specific components or for delivery of certificates of conformance for batches of components. The use of bi-modal Weibull analysis to select and optimize an RSS process without having to estimate the reliability and life time of all items is described. This second edition cancels and replaces the first edition published in 1998. This edition constitutes a technical revision. |
IEC 62506:2013 Abstract |
Methods for product accelerated testing IEC 62506:2013 provides guidance on the application of various accelerated test techniques for measurement or improvement of product reliability. Identification of potential failure modes that could be experienced in the use of a product/item and their mitigation is instrumental to ensure dependability of an item. The object of the methods is to either identify potential design weakness or provide information on item dependability, or to achieve necessary reliability/availability improvement, all within a compressed or accelerated period of time. This standard addresses accelerated testing of non-repairable and repairable systems. It can be used for probability ratio sequential tests, fixed duration tests and reliability improvement/growth tests, where the measure of reliability may differ from the standard probability of failure occurrence. This standard also extends to present accelerated testing or production screening methods that would identify weakness introduced into the product by manufacturing error, which could compromise product dependability. Keywords: test techniques for measurement or improvement of product reliability. |
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3.1.4 Reliability and availability support – Reliability growth
Publication | Title |
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IEC 61014:2003 Abstract |
Programmes for reliability growth Specifies requirements and gives guidelines for the exposure and removal of weaknesses in hardware and software items for the purpose of reliability growth. Applies when the product specification calls for a reliability growth programme of equipment (electronic, electromechanical and mechanical hardware as well as software) or when it is known that the design is unlikely to meet the requirements without improvement. The main changes with respect to the previous edition are listed below. A subclause on planning reliability growth in the design phase has been added. A subclause on management aspects covering both reliability growth in design and the test phase has been added. A clause on reliability growth in the field has been added. |
Abstract |
Reliability growth – Statistical test and estimation methods Gives models and numerical methods for reliability growth assessments based on failure data, which were generated in a reliability improvement programme. These procedures deal with growth, estimation, confidence intervals for product reliability and goodness-of-fit tests. |
Abstract |
Reliability growth – Stress testing for early failures in unique complex systems This international standard gives guidance for reliability growth during final testing or acceptance testing of unique complex systems. It gives guidance on accelerated test conditions and criteria for stopping these tests. |
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3.2.1 Maintainability and supportability – Maintainability
Publication | Title |
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IEC 60706-6:1994 |
Guide on maintainability of equipment – Part 6: Section 9: Statistical methods in maintainability evaluation |
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Maintainability of equipment – Part 2: Maintainability requirements and studies during the design and development phase This part of IEC 60706 examines the maintainability requirements and related design and use parameter, and discusses some activities necessary to achieve the required maintainability characteristics and their relationship to planning of maintenance. It describes the general approach in reaching these objectives and shows how maintainability characteristics should be specified in a requirements document or contract. It is not intended to be a complete guide on how to specify or to contract for maintainability. Its purpose is to define the range of considerations when maintainability characteristics are included as requirements for the development or the acquisition of an item. |
Abstract |
Maintainability of equipment – Part 3: Verification and collection, analysis and presentation of data This part of IEC 60706 describes the various aspects of verification necessary to ensure that the specified maintainability requirements of an item have been met and provides suitable procedures and test methods. This standard also addresses the collection, analysis and presentation of maintainability related data, which may be required during, and at the completion of, design and during item production and operation. |
IEC 60706-4:1999 Withdrawn |
Guide on maintainability of equipment – Part 4: Section 8: Maintenance and maintenance support planning |
Abstract |
Maintainability of equipment – Part 5: Testability and diagnostic testing This guide has for purpose to provide guidance for the early consideration of testability aspects in design and development, and to assist in determining effective test procedures as an integral part of operation and maintenance. This second edition constitutes a technical revision. It expands and provides more detail on the techniques and systems broadly outlined in the first edition. |
IEC 60706-6:1994 |
Guide on maintainability of equipment – Part 6: Section 9: Statistical methods in maintainability evaluation |
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3.2.2 Maintainability and supportability – Supportability
Publication | Title |
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IEC 60300-3-11:2009 Abstract |
Dependability management – Part 3-11: Application guide – Reliability centred maintenance Provides guidelines for the development of an initial preventive maintenance programme for equipment and structures using reliability centred maintenance (RCM) analysis techniques. RCM analysis can be applied to items such as ground vehicle, ship, power station, aircraft, etc, which are made up of equipment and structure, e.g. a building, airframe or ship’s hull. Typically an equipment comprises a number of electrical , mechanical, instrumentation or control systems and subsystems which can be further broken down into progressively smaller groupings, as required. Keywords: Reliability, management, quality assurance systems, maintenance, terotechnology, research methods, quality, quality management, availability, safety, analysis, failure. |
Abstract |
Dependability management – Part 3-16: Application guide – Guidelines for specification of maintenance support services IEC 60300-3-16:2008 describes a framework for the specification of services related to the maintenance support of products, systems and equipment that are carried out during the operation and maintenance phase. The purpose of this standard is to outline, in a generic manner, the development of agreements for maintenance support services as well as guidelines for the management and monitoring of these agreements by both the company and the service provider. |
Abstract |
Root cause analysis (RCA) This international standard describes the basic principles of root cause analysis (RCA) and specifies the steps that a process for RCA should include. This standard identifies a number of attributes for RCA techniques which assist with the selection of an appropriate technique. It describes each RCA technique and its relative strengths and weaknesses. RCA is used to analyse the root causes of focus events with both positive and negative outcomes, but it is most commonly used for the analysis of failures and incidents. Causes for such events can be varied in nature, including design processes and techniques, organizational characteristics, human aspects and external events. RCA can be used for investigating the causes of non-conformances in quality (and other) management systems as well as for failure analysis, for example in maintenance or equipment testing. RCA is used to analyse focus events that have occurred, therefore this standard only covers a posteriori analyses. It is recognized that some of the RCA techniques with adaptation can be used proactively in the design and development of items and for causal analysis during risk assessment; however, this standard focuses on the analysis of events which have occurred. The intent of this standard is to describe a process for performing RCA and to explain the techniques for identifying root causes. These techniques are not designed to assign responsibility or liability, which is outside the scope of this standard. |
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3.3.1 Risk assessment – risk assessment support
Publication | Title |
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Abstract |
Hazard and operability studies (HAZOP studies) – Application guide Provides a guide for HAZOP studies of systems using guide words. It gives guidance on application of the technique and on the HAZOP study procedure, including definition, preparation, examination sessions and resulting documentation and follow-up. Documentation examples, as well as a broad set of examples encompassing various applications, illustrating HAZOP studies are also provided. |
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3.4.1 System dependability – System engineering
Publication | Title |
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Abstract |
Dependability management – Part 3: Application guide – Section 3: Life cycle costing IEC 60300-3-3: 2017 establishes a general introduction to the concept of life cycle costing and covers all applications. Although costs incurred over the life cycle consist of many contributing elements, this document particularly highlights the costs associated with the dependability of an item. This forms part of an overall dependability management programme as described in IEC 60300-1. Guidance is provided on life cycle costing for use by managers, engineers, finance staff, and contractors; it is also intended to assist those who may be required to specify and commission such activities when undertaken by others. This third edition cancels and replaces the second edition published in 2004. This edition constitutes a technical revision. This edition includes the following significant technical changes with respect to the previous edition: |
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Dependability management – Part 3-4: Application guide – Guide to the specification of dependability requirements IEC 60300-3-4:2022 gives guidance on specifying dependability requirements and collating these requirements in a specification, together with a list of the means of assuring the achievement of the dependability requirements.
The guidance provided includes: |
Withdrawn |
Design review Subsumed within IEC 62960. |
Abstract |
Communication network dependability engineering IEC 61907:2009 gives guidance on dependability engineering of communication networks. It establishes a generic framework for network dependability performance, provides a process for network dependability implementation, and presents criteria and methodology for network technology designs, performance evaluation, security consideration and quality of service measurement to achieve network dependability performance objectives. This standard is applicable to network equipment developers and suppliers, network integrators and providers of network service functions for planning, evaluation and implementation of network dependability. |
Withdrawn |
Guidance on system dependability specifications Subsumed within IEC 60300-3-4. |
Abstract |
Methodology for communication network dependability assessment and assurance IEC 62673:2013 describes a generic methodology for dependability assessment and assurance of communication networks from a network life cycle perspective. It presents the network dependability assessment strategies and methodology for analysis of network topology, evaluation of dependability of service paths, and optimization of network configurations in order to achieve network dependability performance and dependability of service. It also addresses the network dependability assurance strategies and methodology for application of network health check, network outage control and test case management to enhance and sustain dependability performance in network service operation. This standard is applicable to network service providers, network designers and developers, and network maintainers and operators for assurance of network dependability performance and assessment of dependability of service. |
Abstract |
Dependability reviews during the life cycle IEC 62960:2020 provides guidance on a review methodology for dependability from a technical perspective that is applicable at all stages of a system life cycle. Its application can improve the dependability of a system throughout its life cycle by triggering appropriate actions at appropriate times to address potential dependability problems.
It provides guidance for developers, manufacturers, users and third-party independent reviewers such as consulting organizations.
This document describes a dependability review methodology focusing on: |
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3.4.2 System dependability – Human aspects
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IEC 62508:2010 Abstract |
Guidance on human aspects of dependability
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3.4.3 System dependability – Software
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IEC 60300-3-6:1997 |
Dependability management – Part 3: Application guide – Section 6: Software aspects of dependability |
IEC 61713:2000 |
Software dependability through the software life cycle processes –Application guide |
Abstract |
Guidance on software aspects of dependability Addresses the issues concerning software aspects of dependability and gives guidance on achievement of dependability in software performance influenced by management disciplines, design processes and application environments. It establishes a generic framework on software dependability requirements, provides a software dependability process for system life cycle applications, presents assurance criteria and methodology for software dependability design and implementation and provides practical approaches for performance evaluation and measurement of dependability characteristics in software systems. Keywords: software, performance, dependability |
IEC PAS 62814:2012 Abstract
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Dependability of software products containing reusable components – Guidance for functionality and tests IEC PAS 62814:2012(E) introduces the concept of assuring reused components and their usage within new products. It provides information and criteria about the tests and analysis required for products containing such reused parts. The objective is to support the engineering requirements for functionality and tests of reusable software components and composite systems containing such components in evaluating and assuring reuse dependability. Keywords: Reused software components, dependability |
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4. Associated standards
4.1 Associated IEC standards with dependability relevance
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4.2 Associated ISO standards with dependability relevance
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General principles on reliability for structures | |
Gas turbines – Procurement – Part 9: Reliability, availability, maintainability and safety | |
Aerospace – List of equivalent terms – Part 8: Aircraft reliability | |
Nuclear power plants – Reliability data exchange – General guidelines | |
Nuclear power plants – Guidelines to ensure quality of collected data on reliability | |
General principles on reliability for structures – List of equivalent terms | |
Petroleum, petrochemical and natural gas industries – Reliability modelling and calculation of safety systems | |
Abstract |
Earth-moving machinery – Operation and maintenance – Maintainability guidelines ISO 12510:2004 establishes guidelines for the incorporation of design features that promote safety, efficiency, reliability and ease of maintenance and service operations on earth-moving machinery as defined in ISO 6165. |
Abstract |
Petroleum, petrochemical and natural gas industries – Collection and exchange of reliability and maintenance data for equipment ISO 14224:2016 provides a comprehensive basis for the collection of reliability and maintenance (RM) data in a standard format for equipment in all facilities and operations within the petroleum, natural gas and petrochemical industries during the operational life cycle of equipment. It describes data collection principles and associated terms and definitions that constitute a “reliability language” that can be useful for communicating operational experience. The failure modes defined in the normative part of this international standard can be used as a “reliability thesaurus” for various quantitative as well as qualitative applications. This international standard also describes data quality control and assurance practices to provide guidance for the user. Standardization of data collection practices facilitates the exchange of information between parties, e.g. plants, owners, manufacturers and contractors. This international standard establishes requirements that any in-house or commercially available RM data system is required to meet when designed for RM data exchange. Examples, guidelines and principles for the exchange and merging of such RM data are addressed. This international standard also provides a framework and guidelines for establishing performance objectives and requirements for equipment reliability and availability performance. Annex A contains a summary of equipment that is covered by this international standard. ISO 14224:2016 defines a minimum amount of data that is required to be collected, and it focuses on two main issues: – data requirements for the categories of data to be collected for use in various analysis methodologies; – standardized data format to facilitate the exchange of reliability and maintenance data between plants, owners, manufacturers and contractors. The following main categories of data are to be collected: a) equipment data, e.g. equipment taxonomy, equipment attributes; b) failure data, e.g. failure cause, failure consequence; c) maintenance data, e.g. maintenance action, resources used, maintenance consequence, down time. NOTE Clause 9 gives further details on data content and data format. The main areas where such data are used are the following: 1) reliability, e.g. failure events and failure mechanisms; 2) availability/efficiency, e.g. equipment availability, system availability, plant production availability; 3) maintenance, e.g. corrective and preventive maintenance, maintenance plan, maintenance supportability; 4) safety and environment, e.g. equipment failures with adverse consequences for safety and/or environment. ISO 14224:2016 does not apply to the following: i. data on (direct) cost issues; ii. data from laboratory testing and manufacturing (e.g. accelerated lifetime testing), see also 5.2; iii. complete equipment data sheets (only data seen relevant for assessing the reliability performance are included); iv. additional on-service data that an operator, on an individual basis, can consider useful for operation and maintenance; v. methods for analysing and applying RM data (however, principles for how to calculate some basic reliability and maintenance parameters are included in the annexes). |
Abstract | Systems and software engineering – System life cycle processes ISO/IEC/IEEE 15288:2015 establishes a common framework of process descriptions for describing the life cycle of systems created by humans. It defines a set of processes and associated terminology from an engineering viewpoint. These processes can be applied at any level in the hierarchy of a system’s structure. Selected sets of these processes can be applied throughout the life cycle for managing and performing the stages of a system’s life cycle. This is accomplished through the involvement of all stakeholders, with the ultimate goal of achieving customer satisfaction. ISO/IEC/IEEE 15288:2015 also provides processes that support the definition, control and improvement of the system life cycle processes used within an organization or a project. Organizations and projects can use these processes when acquiring and supplying systems. ISO/IEC/IEEE 15288:2015 concerns those systems that are man-made and may be configured with one or more of the following system elements: hardware, software, data, humans, processes (e.g., processes for providing service to users), procedures (e.g., operator instructions), facilities, materials and naturally occurring entities. |
Petroleum and natural gas industries – Life cycle costing – Part 1: Methodology | |
Petroleum and natural gas industries – Life-cycle costing – Part 2: Guidance on application of methodology and calculation methods | |
Petroleum and natural gas industries – Life-cycle costing – Part 3: Implementation guidelines | |
Abstract |
Systems and software engineering – Life cycle processes – Risk management ISO/IEC 16085:2006 defines a process for the management of risk in the life cycle. It can be added to the existing set of system and software life cycle processes defined by ISO/IEC 15288 and ISO/IEC 12207, or it can be used independently. ISO/IEC 16085:2006 can be applied equally to systems and software. Risk management is a key discipline for making effective decisions and communicating the results within organizations. The purpose of risk management is to identify potential managerial and technical problems before they occur so that actions can be taken that reduce or eliminate the probability and/or impact of these problems should they occur. It is a critical tool for continuously determining the feasibility of project plans, for improving the search for and identification of potential problems that can affect life cycle activities and the quality and performance of products, and for improving the active management of projects |
Pneumatic fluid power – Assessment of component reliability by testing – Part 1: General procedures | |
Petroleum, petrochemical and natural gas industries – Production assurance and reliability management | |
Acceptance sampling procedures based on the allocation of priorities principle (APP) – Part 1: Guidelines for the APP approach (one of a series) | |
Acceptance sampling procedures based on the allocation of priorities principle (APP) – Part 2: Coordinated single sampling plans for acceptance sampling by attributes. | |
Abstract | Risk management – Guidelines ISO 31000:2018 provides guidelines on managing risk faced by organizations. The application of these guidelines can be customized to any organization and its context. |
Risk management — Vocabulary |
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