Process50
international standards, references, webinars and training
| Title | Description | Source |
|---|---|---|
| The Necessity for Systems Engineering within the Oil and Gas Industry | Reports investigation of SE approaches to Oil & Gas Industry. Includes definitions, provenance, competencies, case studies and benefits. | IMechE |
| System Diagrams: A Practical Guide | Covers six diagram approaches: Rich Picturing, Influence Diagrams, Causal Diagrams, Cynefin, Viable System Model (VSM), and Cultural Historical Activity System Model (CHAT). Includes worked examples and questions that the diagram addresses. Elaborates a systemic inquiry process. | Bob Williams |
| A Systems Approach to Infrastructure Delivery (Part 1) | Documents an industry review of how systems thinking may be used to improve the delivery of complex infrastructure projects. Conveys associated drivers and SAID model arising. See part 2 following. | ICE |
| A Systems Approach to Infrastructure Delivery (Part 2) | Aims to help professionals involved in infrastructure projects to deepen their understanding of the benefits of adopting a Systems Approach to Infrastructure Delivery. Provides practical insight on how to realise those benefits also. | ICE |
| SE and Systems Definitions | A product of an INCOSE Fellows initiative. Provides definitions of systems, engineered systems, and systems engineering. | INCOSE |
| Case Studies (SEBoK) | A library of implementation examples describing application of systems engineering practices, principles, and concepts in real settings. | INCOSE / IEEE |
| Guideline for Systems Engineering within the Dutch civil engineering sector | Intended for anybody in the civil engineering sector working for an organisation that uses or wants to introduce SE, on both the client and contractor side and along the entire cycle of projects. | NL SE Working Group |
| Product-Based Planning | INCOSE UK and APM Systems Thinking SiG PM-SE fusion point guidance on planning and managing scope. | INCOSE UK / APM |
| Guide to SE and P3M Processes | INCOSE UK and APM Systems Thinking SiG output. Collates and compares process frameworks from PM and SE disciplines and identifies key fusion points. | INCOSE / APM |
| Systems Engineering Handbook | Provides general guidance and information on systems engineering. Aimed at promoting awareness, consistency and advanced practice. | NASA |
| Systems Engineering Guide | Provides guidance on a wide range of systems engineering subjects sufficient for understanding the essentials of the discipline and for translating into practice in your own work environment. | MITRE |
| IPA Project Development Routemap | The UK government's international support tool for novel or complex projects. Helps people responsible for delivering projects to understand the capabilities they need to set up for success. Aligns with international best practice and incorporates learning from other major projects and programmes. | UK Gov |
| Systems Engineering Body of Knowledge (SEBoK) | An authoritative BoK created by and for the global systems engineering community. Owned by INCOSE and the IEEE. | INCOSE / IEEE |
| Systems Engineering Handbook | An authoritative reference that defines the discipline and practice of systems engineering. Describes ISO/IEC/IEEE 15288 system life cycle process activities, fundamental system concepts, life cycle management, specialty engineering and more. Forms basis for INCOSE SEP certification. | INCOSE |
| Ref | Title | Description |
|---|---|---|
| ISO/IEC/IEEE 24765 | Systems and software engineering - Vocabulary | Provides a common vocabulary applicable to all systems and software engineering work. Prepared to collect and standardize terminology. |
| ISO/IEC/IEEE 21840 | Systems and software engineering - Guidelines for the utilization of ISO/IEC/IEEE 15288 in the context of system of systems (SoS) | Provides guidance on the use of ISO/IEC/IEEE 15288 in the context of SoS Engineering (SoSE), including considerations for how constituent systems relate to each other within the SoS. However, the use of any specific taxa in ISO/IEC/IEEE 21841 is not required. |
| ISO/IEC/IEEE 29418 | Systems and software engineering - Life cycle processes - Requirements engineering | Provides guidance for the execution of the ISO/IEC 15288 and ISO/IEC 12207 processes that deal with requirements engineering. This International Standard also provides normative definition of the content and recommendations for the format of the information items, or documentation, that result from the implementation of these processes. |
| ISO/IEC/IEEE 24748 | Systems and software engineering - Life cycle management - Part 1: Guidelines for life cycle management | Addresses system and life cycle concepts and terms (e.g. models, stages, processes, views etc) with guidance on application. |
| ISO/IEC/IEEE 15288 | Systems and software engineering - System life cycle processes | 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. |
| ISO/IEC/IEEE 21839 | Systems and software engineering - Guidelines for the utilization of ISO/IEC/IEEE 15288 in the context of system of systems (SoS) | Provides guidance on the use of ISO/IEC/IEEE 15288 in the context of SoS Engineering (SoSE), including considerations for how constituent systems relate to each other within the SoS. However, the use of any specific taxa in ISO/IEC/IEEE 21841 is not required. |
| ISO/IEC/IEEE 21841 | Systems and software engineering - Taxonomy of systems of systems | Provides a taxonomy for SoS, providing specific viewpoints that align with management and governance concerns. Using a taxonomy in conjunction with this document facilitates better communications among the various stakeholders that are involved in activities like governance, engineering, operation and management of these SoS. |
| ISO/IEC/IEEE 42010 | Systems and software engineering - Architecture description | Addresses the creation, analysis and sustainment of architectures of systems through the use of architecture descriptions. |
| ISO/IEC/IEEE 15289 | Systems and software engineering - Content of life-cycle information items (documentation) | Specifies the purpose and content of all identified systems and software life-cycle and service management information items (documentation). |
| Title | Objectives / Outcomes | Provider | Duration |
|---|---|---|---|
| Systems Practise: Managing Sustainability |
| Open University | 15 hours |
| Requirements Writing |
| UNSW / INCOSE / Coursera | 9 hours |
| Engineering Project Management: Initiating and Planning |
| Rice University / Coursera | 19 hours |
| Systems Modelling |
| Open University | 4 hours |
| Introduction to Systems Engineering |
| UNSW / INCOSE / Coursera | 32 hours |
 | A Systems Approach to Infrastructure Delivery ICE A video summarising ICE reports on developing a systems thinking approach to large scale infrastructure projects. |
 | Achieving Designs that Satisfy Stakeholders Through Better Requirements INCOSE RWG Requirements Engineering, Specification |
 | Model-Based Systems Engineering De-mystified with Dr. Warren Vaneman INCOSE Model-Based Systems Engineering |
 | Integrating Program Management in Systems Engineering INCOSE / PMI P3M, Systems Engineering, Integration |
 | Eric Honour explores Return on Investment of Systems Engineering INCOSE Return on Investment, Value of SE |
 | Applied Requirements Engineering: How to increase project success IREB / Modern Analyst Requirements Engineering, Benefits, Approaches, Principles |
 | A Comprehensive Guide on Tailoring the INCOSE Guide for Writing Requirements INCOSE RWG Requirements Writing, Tailoring, Tools |
 | INCOSE Agile Systems |
 | Value of Integrating Project Management with Systems Engineering SESA P3M-SE Integration |
 | Challenges of needs and requirements definition and management for complex systems INCOSE Requirements Engineering, Integration, Architecture, Validation |
 | MIT Requirements Engineering, Specification, Content and quality prompts |
 | MIT Modelling, OPM, SysML, MBSE |
 | System Architecture and Concept Generation MIT Conceptualisation, Architecture, Form, Function, Logical Decomposition, System Partitioning, Architecting, Modelling, Mind Maps, PFD, Brainstorming |
 | Concept Selection and Tradespace Exploration MIT Decision Analysis, Tools, Pugh Matrix, Multi-Attribute Utility, Non-Dominance, Pareto Frontiers, Multi-objective Optimisation, Preliminary Design Review |
 | Design Definition and Multidisciplinary Optimisation MIT Design Definition Process, Multidisciplinary Design Optimisation, Concurrent Design Facilities, Critical Design Review |
 | Systems Integration and Interface Management MIT System interfaces, Integration, Design Structure Matrix, Interface Control Documents |
 | MIT V&V, Testing, Technical Risk Management, Risk Matrix, Iron Triangle, System Safety |
 | MIT Operations, Commissioning, Research |
 | MIT System Life Cycle, Case Studies, Summary Concepts, Management |
 | Introduction to Easy Approach to Requirements Syntax (EARS) INCOSE / Alistair Mavin Requirements Engineering, Specification, Patterns |
 | Developing Complete and Validated Requirements INCOSE / Ron Carson Requirements Engineering, Specification |
 | Guide for the Unified Architecture Framework UAF INCOSE Sweden Architecture Frameworks, Step Modelling |
Last updated: 2023-09-27