MADCAD.com - The Cloud-Based Reference Library

Not a subscriber? Register for a trial account.

Username:
Password:

Incorrect username/password.

Already a subscriber?

MADCAD.com Free Trial

Sign up for a 3 day free trial to explore the MADCAD.com interface, PLUS access the
2009 International Building Code to see how it all works.

If you like to setup a quick demo, let us know at support@madcad.com
or +1 800.798.9296 and we will be happy to schedule a webinar for you.

Email *
Password *
Confirm *
First Name *
Last Name *
Title
Company Name *
Company Size *
Industry *
Address *
Address 2
City *
State *	Zip *
Country *
Phone *
How did you hear about MADCAD.com? *

⨯To continue with accurate pricing,
please select your company type below:

Large goverment organizations

Large multi-national corporation (more than $5B annual revenue)

None of the above

Your company has a special pricing case for IEEE.
For pricing, please contact us by filling out the form.

Full name*
Email*
Phone
Your selection

⨯We need your input!

Are you a code official in a jurisdiction with less than 300,000 population?

Yes No

This item is only available for the code officials of jurisdictions less then 300K population.

If you do not meet the criteria item will be removed and you will be able to continue shopping other items.

⨯ We need your input!

Your company has a special pricing case for ASME.
Please make sure the information you provide below is accurate.

Company Industry
Number Of Employees
Revenue

Pricing for the ASME publications in the store is for a 1-4 employee company in Construction Industry with revenue under $500,000.
If correct company info does not match what is publicly available info we will suspend the access and contact you for correction.
Please call 1-800-798-9296 if you have any questions.
If your company has more than 5,000 employee or more than 500 mil revenue please email us at info@madcad.com to receive a special quote, use "ASME Quote" on the subject line.

eLibrary > IEC/TR 63319:2025 A meta-modelling analysis approach to smart manufacturing reference models >

IEC/TR 63319:2025 A meta-modelling analysis approach to smart manufacturing reference models, 2025

CONTENTS
FOREWORD
INTRODUCTION
1 Scope
2 Normative references
3 Terms and definitions, abbreviated terms, acronyms and conventions [Go to Page]
3.1 Terms and definitions
3.2 Convention used for term and definition selection
3.3 Abbreviations and acronyms
3.4 Conventions used for selected references
4 Smart manufacturing (SM) [Go to Page]
4.1 Introduction to and vision of SM
4.2 SM characteristics and differences from conventional manufacturing
4.3 Essential concepts and enabling technologies for SM [Go to Page]
4.3.1 SM categories
4.3.2 Generic methods
4.3.3 Applications in the manufacturing domain
4.3.4 Information and communication technologies
5 Smart manufacturing reference model (SMRM) [Go to Page]
5.1 Need for a SMRM
5.2 Objectives in more detail
5.3 SMRM focus
5.4 Reference modelling
5.5 Usage of a reference model: the OSI model
5.6 SMRM harmonization needs
5.7 SMRM abstraction stack
6 SMRM meta-modelling approach [Go to Page]
6.1 General
6.2 Objectives
6.3 Assumptions, constraints and guidance [Go to Page]
6.3.1 Assumptions
6.3.2 Constraints
6.3.3 Guidance
6.4 Concepts [Go to Page]
6.4.1 General
6.4.2 Concepts of the meta-model
6.4.3 Proposition of the meta-model for SMRM
6.5 Meta-model for SMRM visualization
6.6 *Facet_composition_rules and *aspect_collection_coherence_rules
6.7 Utilizing the meta-model concept of use case [Go to Page]
6.7.1 General
6.7.2 *Use_cases for articulating concerns
6.7.3 *Viewpoints capture concerns and specify views
6.7.4 Examples of *model_content_purpose
7 Mapping of the contributions for SMRMs to the SMRM meta-model [Go to Page]
7.1 General
7.2 Mapping for Scandinavian smart manufacturing model [Go to Page]
7.2.1 Graphical depiction of SSIF mapping
7.2.2 SSIF *facet_composition_rule
7.2.3 Business dimension *aspect_collection
7.2.4 Product dimension *aspect_collection
7.2.5 Production dimension *aspect_collection
7.2.6 Space Time dimension (Life cycle) *aspect_collection
7.3 Mapping for RAMI 4.0 [Go to Page]
7.3.1 Graphical depiction of RAMI 4.0 mapping
7.3.2 RAMI 4.0 – *facet_composition_rule
7.3.3 Service oriented architecture as a universal technical approach
7.3.4 Layers *aspect_collection_coherence_rule
7.3.5 Hierarchy Levels *aspect_collection_coherence_rule
7.3.6 Life cycle *aspect_collection_coherence_rule
7.4 Mapping for IMSA [Go to Page]
7.4.1 Graphical depiction of IMSA mapping
7.4.2 System Hierarchy *aspect_collection_coherence_rule
7.4.3 Life Cycle *aspect_collection_coherence_rule
7.4.4 Intelligent Function *aspect_collection_coherence_rule
7.5 Mapping for ISO 15704:2019, Annex B – GERAM [Go to Page]
7.5.1 Graphical depiction of ISO 15704:2019, Annex B – GERAM
7.5.2 GERAM *facet_composition_rules
7.5.3 Life cycle phases *aspect_collection_coherence_rule
7.5.4 Modelling viewpoints *aspect_collection_coherence_rule
7.5.5 Instantiation *aspect_collection_coherence_rule
7.5.6 Manifestation *aspect_collection_coherence_rule
7.5.7 Purpose *aspect_collection_coherence_rule
7.5.8 Implementation *aspect_collection_coherence_rule
7.6 Mapping for NIST Smart Manufacturing Standards Landscape [Go to Page]
7.6.1 Graphical depiction of NIST Smart Manufacturing Standards Landscape mapping
7.6.2 NIST *facet_composition_rules
7.6.3 Business life cycle *aspect_collection_coherence_rule
7.6.4 Product life cycle *aspect_collection_coherence_rule
7.6.5 Production life cycle *aspect_collection_coherence_rule
7.6.6 Manufacturing pyramid *aspect_collection_coherence_rule
7.7 Mapping for KSTEP cube framework [Go to Page]
7.7.1 Graphical depiction of KSTEP cube framework mapping
7.7.2 Space axis 1 *aspect_collection_coherence_rule
7.7.3 Space axis 2 *aspect_collection_coherence_rule
7.7.4 Time axis t *aspect_collection_coherence_rule
7.8 Mapping for IVRA Next [Go to Page]
7.8.1 Graphical depiction of IVRA Next mapping
7.8.2 Three axes of SM facet and SMU facet composition rules
7.8.3 Product axis (thing) *aspect_collection_coherence_rule
7.8.4 Service axis (occurrence) *aspect_collection_coherence_rule
7.8.5 Knowledge axis *aspect_collection_coherence_rule
7.8.6 Asset view *aspect_collection_coherence_rule
7.8.7 Management view *aspect_collection_coherence_rule
7.8.8 Activity view *aspect_collection_coherence_rule
7.9 Mapping for IIC Industrial Internet Reference Architecture [Go to Page]
7.9.1 Graphical depiction of IIC IIRA mapping
7.10 Mapping for Smart Manufacturing Standards Map (SM2) [Go to Page]
7.10.1 Graphical depiction of Smart Manufacturing Standards Map (SM2)
7.10.2 SM2 *facet_composition_rules
7.11 Mapping for URM-MM [Go to Page]
7.11.1 Graphical depiction of URM-MM
7.11.2 URM-MM *facet_composition_rules
7.11.3 Model/Organization *aspect_collection_coherence_rule
7.11.4 URM-MM *aspect_collection_coherence_rule
8 Analysis of particular collections of aspects [Go to Page]
8.1 Identification of a set of common *aspects_collections
8.2 Life cycle [Go to Page]
8.2.1 General
8.2.2 Overview on contributions for SMRMs
8.2.3 Particularities of contributions for SMRMs with respect to life cycle
8.2.4 Fundamental questions concerning life cycle aspects of a SMRM
8.2.5 Observed consequences to the life cycle questions
8.2.6 Outlook
8.3 Hierarchy [Go to Page]
8.3.1 General
8.3.2 Overview on contributions for SMRMs with respect to hierarchy
8.3.3 Particularities of contributions for SMRMs with respect to hierarchy
8.3.4 Fundamental questions concerning hierarchy aspects of a SMRM
8.3.5 Observed consequences to the hierarchy questions
8.3.6 Outlook
8.4 Layer [Go to Page]
8.4.1 General
8.4.2 Overview on contributions for SMRMs
8.4.3 Particularities of contributions for SMRMs with respect to layer
8.4.4 Fundamental questions concerning layer aspects of a SMRM
8.4.5 Observed consequences to the layer questions
8.4.6 Outlook
8.5 Additional aspects [Go to Page]
8.5.1 General
8.5.2 Fundamental questions concerning additional *aspect_collections of a SMRM
8.5.3 Observed consequences to the additional *aspect_collections questions
9 Toward a family of SMRM representations [Go to Page]
9.1 Expectations for a unifying SMRM
9.2 Identification of generic (timeless) principles for SMRM
9.3 Structurally addressing the missing smart technologies
9.4 Observations from mapping and analysis
9.5 Candidate *aspect_collection_coherence_rules and *facet_composition_rules
9.6 The family of SMRM representations
9.7 The case for *use_case
9.8 Approaching creation of the SMRM
Annex A (informative) Objectives and terms of reference for JWG 21 [Go to Page]
A.1 Objectives
A.2 Terms of reference
Annex B (informative) Contributions for SMRMs [Go to Page]
B.1 RAMI [Go to Page]
B.1.1 General
B.1.2 Layer axis
B.1.3 Life cycle axis in RAMI 4.0
B.2 IMSA [Go to Page]
B.2.1 Intelligent manufacturing system framework
B.2.2 Life cycle
B.2.3 System hierarchy
B.2.4 Intelligence characteristics
B.2.5 Structural diagram of intelligent manufacturing standard system
B.3 GERAM [Go to Page]
B.3.1 Rationale for enterprise-reference architecture and methodologies
B.3.2 Generalized enterprise-reference architecture and methodologies
B.3.3 Framework for enterprise architecture and enterprise integration
B.4 NIST Smart Manufacturing EcoSystem and Standards Landscape
B.5 KSTEP cube framework for standards [Go to Page]
B.5.1 Skeleton meta-model
B.5.2 KSTEP cube framework
B.6 IVRA Next [Go to Page]
B.6.1 General
B.6.2 Overview
B.6.3 Evolutional Model in Manufacturing
B.7 ISO/TC 184 Automation systems and integration – the Big Picture of standards (ISO TR 23087:2018 [40]) [Go to Page]
B.7.1 History
B.7.2 Purpose
B.7.3 Summary of axis and facets of the ISO/TC 184 Big picture of standards diagram and matrix
B.8 AIF framework and reference model for SM Standard Landscape (France) [Go to Page]
B.8.1 History
B.8.2 Purpose
B.8.3 Summary of facets and blocks of the AIF RM for SM Standard Landscape
B.9 ISO-IEC Smart Manufacturing Standards Landscape (SM2) [Go to Page]
B.9.1 History
B.9.2 Terms of reference
B.9.3 SM2 framework
B.9.4 SM2 vocabulary
B.10 URM-MM [Go to Page]
B.10.1 Background
B.10.2 Overview
B.10.3 Usage
B.10.4 Practical use-case
B.10.5 Illustration of Relevant International Standards Mapping
B.11 Scandinavian model [Go to Page]
B.11.1 Scandinavian Semantic Model Design Principles
B.11.2 Domain Semantic Model exemplified by Product Dimension
B.12 UK Model
Annex C (informative) Definition of smart manufacturing, and interpretations
Annex D (informative) Concepts of Meta-modelling
Bibliography
Figures [Go to Page]
Figure 1 – Example of transition from centralized to distributed system paradigm
Figure 2 – SMRM abstraction stack
Figure 3 – Meta-model for SMRM
Figure 4 – Segments of the SMRM meta-model
Figure 5 – Relation between typical concerns and use-cases on SM
Figure 6 – Example of an implementation model for *use-case #1
Figure 7 – Illustration about relation between a SMRM and a *stakeholder
Figure 8 – Mapping for Scandinavian smart manufacturing model
Figure 9 – Mapping for RAMI 4.0
Figure 10 – Mapping for IMSA
Figure 11 – Mapping for ISO 15704:2019 – GERAM Annex
Figure 12 – Mapping for NIST Smart Manufacturing Standards Landscape
Figure 13 – NIST SMS Ecosystem − Integrated Smart Manufacturing
Figure 14 – Mapping for KSTEP cube framework
Figure 15 – IVRA Next: Mapping to Three Axes of SM and SMU
Figure 16 – Mapping for IIC IIRA
Figure 17 – System representation # 1
Figure 18 – System representation # 2
Figure 19 – Mapping for URM-MM
Figure 20 – The validity of individual exemplary life cycles on elements over time
Figure 21 – Graphical overview on different contributions for SMRMs
Figure 22 – Graphical overview on different contributions for SMRMs with respect to Hierarchy
Figure 23 – Graphical overview on different contributions for SMRMs
Figure 24 – N2 *aspect_collection of semantic coherence
Figure 25 – Basic structure for a family of SMRM with alternative 3D representations
Figure 26 – Basic structural representation for several of the contributions − SSIF, RAMI 4.0, IMSA, and IVRA Next
Figure B.1 – The viewpoint of the RAMI 4.0 model
Figure B.2 – Linking of life cycles
Figure B.3 – Factory reference architecture model as of IEC 62264-1 and IEC 61512-1, with Industrie 4.0 enhancements
Figure B.4 – Intelligent Manufacturing System Framework
Figure B.5 – Structural diagram of intelligent manufacturing standard system
Figure B.6 – Mapping between IMSA and standard system structure
Figure B.7 – GERAM-ISO (Generalized Enterprise Reference Architecture and Methodology − ISO) framework components
Figure B.8 – GERA Modelling Framework representation with Modelling Views
Figure B.9 – Smart Manufacturing Ecosystem
Figure B.10 – Smart Manufacturing Standards Landscape
Figure B.11 – Skeleton of the NIST framework
Figure B.12 – Skeleton of the RAMI 4.0 framework and the KSTEP framework
Figure B.13 – Three axes of the KSTEP cube framework
Figure B.14 – KSTEP cube framework
Figure B.15 – Digital twin of the KSTEP cube framework
Figure B.16 – Three layers of manufacturing
Figure B.17 – Three axes of SM
Figure B.18 – Four cycles of SM
Figure B.19 – EROR cycle for evolution
Figure B.20 – Icons of scenario defining elements
Figure B.21 – Cyber and physical connection
Figure B.22 – Cross border management by PLU
Figure B.23 – Example of a Big Picture matrix
Figure B.24 – Graph-Nodes filtered building
Figure B.25 – Tree map sector barrier
Figure B.26 – Example: business, operate and ship
Figure B.27 – Standards landscape
Figure B.28 – Principles of the AIF framework for the SM standards landscape
Figure B.29 – Relation between standards map projects
Figure B.30 – Example mapping of product catalogue data standards
Figure B.31 – Example mapping structure for production system standards
Figure B.32 – Unified Reference Model − Map and Methodology (URM-MM)
Figure B.33 – Diagram of Canvas on an example of a production system having dynamic optimization
Figure B.34 – Diagram of Use-case on an example of a production system having dynamic optimization
Figure B.35 – Diagram of Function on an example of a production system having dynamic optimization
Figure B.36 – Diagram of Data (1 of 2) on an example of a production system having dynamic optimization
Figure B.37 – Diagram of Data (2 of 2) on an example of a production system having dynamic optimization
Figure B.38 – Example of Mapping of Relevant International Standards at "Canvas"
Figure B.39 – Example of Mapping of Relevant International Standards at "Data"
Figure B.40 – Scandinavian Smart Industry Framework Semantic Cube
Figure B.41 – Basic principles for the Semantic Space
Figure B.42 – Domain Semantic Model exemplified by Product Dimension
Figure B.43 – Separation of model content and Presentation
Figure B.44 – Semantic model Architecture
Figure B.45 – Dependencies between different aspects in Smart Products Through-Life
Figure D.1 – Meta-abstraction stack
Tables [Go to Page]
Table 1 – SSIF business dimension *Aspect and *Viewpoint according to *Perspective
Table 2 – SSIF product dimension *Aspect and *Viewpoint according to *Perspective
Table 3 – SSIF production dimension *Aspect and *Viewpoint according to *Perspective
Table 4 – SSIF Space Time dimension *Aspect and *Viewpoint according to the *Perspective
Table 5 – RAMI 4.0 *aspect_collections and bifurcations
Table 6 – *Aspect and *Viewpoint for RAMI 4.0 Layers
Table 7 – *Aspect and *Viewpoint for RAMI 4.0 Hierarchy Levels
Table 8 – *Aspect and *Viewpoint for the RAMI 4.0 Life cycle
Table 9 – *Aspect and *Viewpoint for the IMSA System Hierarchy
Table 10 – *Aspect and *Viewpoint for IMSA Life Cycle
Table 11 – *Aspects possible values and explanation for the IMSA Intelligent Functions
Table 12 – *Aspects and *viewpoints for GERAM life cycle
Table 13 – *Aspects and *viewpoints for GERAM modelling viewpoints
Table 14 – *Aspects and *viewpoints of GERAM Instantiation *aspect_collection
Table 15 – Representation of the physical manifestation of the enterprise-entity
Table 16 – Representation of the model contents according to the purpose of the enterprise entity
Table 17 – Representation of the implementation of the enterprise-entity
Table 18 – *Aspects for the Business life cycle
Table 19 – *Aspects of the product life cycle
Table 20 – *Aspects of the production life cycle
Table 21 – *Aspects of the Manufacturing Pyramid
Table 22 – Product axis (thing) *aspects and *viewpoints
Table 23 – Service axis (occurrence) *aspects and *viewpoints
Table 24 – Knowledge axis *aspects and *viewpoints
Table 25 – Asset view *aspects and *viewpoints
Table 26 – Management view *aspects and *viewpoints
Table 27 – Activity view *aspects and *viewpoints
Table 28 – Correspondence between SM2 concepts and SMRM meta-model concepts
Table 29 – Examples of representations
Table 30 – Mapping for System representation # 1
Table 31 – Mapping for System representation # 2
Table 32 – *Aspect and *Viewpoint for Model/Organization in URM-MM
Table 33 – *Aspect and *Viewpoint for the horizontal column in URM-MM
Table 34 – Particularities on life cycle on different contributors' perspective
Table 35 – IMSA Hierarchy levels
Table 36 – RAMI 4.0 Hierarchy related functionalities
Table 37 – IVRA Hierarchical levels
Table 38 – Big Picture Hierarchical levels
Table 39 – Standards Landscape Hierarchical levels
Table 40 – Particularities on layer on different contributors' models
Table 41 – Aspects along the dimension of layers/Intelligent functions
Table 42 – Grouping (and sub-grouping) of additional aspects
Table 43 – Proposed assignment of the additional *aspect_collections groups
Table B.1 – RAMI 4.0 Layers
Table B.2 – RAMI 4.0 generalized life cycle phases
Table B.3 – RAMI 4.0 Hierarchy Levels
Table B.4 – Block "Identification"
Table B.5 – Block "Object of standard"
Table B.6 – Block "Hierarchy"
Table B.7 – Block "Life cycle"
Table B.8 – Block "Relevance"
Table B.9 – Block "Interoperability"
Table B.10 – Block "Priority"
Table B.11 – Block "Validation"
Table B.12 – Relevant blocks, sub-blocks and characteristics of SM2 [Go to Page]

MADCAD.com Free Trial

Report To Us

Contact us for a custom quote

⨯To continue with accurate pricing,
please select your company type below:

⨯We need your input!

⨯ We need your input!

⨯We need your input!

⨯We need your input!

Cart Warning

IEC/TR 63319:2025 A meta-modelling analysis approach to smart manufacturing reference models, 2025

MADCAD.com Free Trial

Report To Us

Contact us for a custom quote

⨯To continue with accurate pricing, please select your company type below:

⨯We need your input!

⨯ We need your input!

⨯We need your input!

⨯We need your input!

Cart Warning

IEC/TR 63319:2025 A meta-modelling analysis approach to smart manufacturing reference models, 2025

⨯To continue with accurate pricing,
please select your company type below: