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LinkedDesign Linked Knowledge in Manufacturing, Engineering and Design for Next-Generation Production Dimitris Kiritsis [email protected] http://www.linkeddesign.eu

LinkedDesign Linked Knowledge in Manufacturing, Engineering and Design for Next-Generation Production Dimitris Kiritsis [email protected]

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LinkedDesignLinked Knowledge in Manufacturing, Engineering and Design for

Next-Generation Production

Dimitris [email protected]

http://www.linkeddesign.eu/

Linked Design STANDARDS

OPPORTUNITY

IMS ACTIVITY PARTICIPANTS

Relevant product information is too often scattered in different (often unstructured) formats and locations making data retrieval tedious and error-prone.

A single point of entry for all relevant product information -independent of its format, location or originator and the phase of the product lifecycle in which the information is created- is clearly missing in current IT landscapes.

Moreover, implicit (new) information which could be derived from existing information by embracing its mutual relationships and interdependencies remains invisible

To create an international IMS community to develop, test, deploy, promulgate, adopt and maintain semantic standards to link engineering knowledge for product design to manufacturing

Within LinkedDesign, the information presented to the user is more than the sum of the aggregated source information.

For this reason, LinkedDesign must not be a platform which only pulls information from various sources, but it will integrate push mechanisms and other bidirectional integration approaches to the source system as well.

Rutgers - US KAIST - KOR

SAP – EU BIBA – EU EPFL – CH POLIMI – EU Holonix – EU VW- EU COMAU – EU AKER - NOR Promise-Innovation – EU Capgemini – EU

Lin

ked

Eng

inee

ring

& M

Anu

fact

urin

g P

latf

orm

LEAP

CAxSystems

ManufacturingSystems

TheWeb

CAxSystems

File Systems:Images, Text, etc.

Data-bases

Wrapper Wrapper Wrapper Wrapper Wrapper

ManufacturingSystems

Engineers, Designers, Marketing Experts, etc.

Data IntegrationWeb-scale identity resolution, schema & object matching

LinkedDesign Knowledge NetworkSemantic Network based on linked data modeling as single logic view on data, information & knowledge

Knowledge ExploitationEngineering & manufacturing specific data analysis

Automated Design Automated extraction of para-meters, rules and constraints for the product & process design

LinkedDesign Front-endContext-driven data access, collaboration support

FP 7 Project Research Topics

Users of LEAP

IMS LinkedDesign MTP – Project Work Packages

WP 2WP 5

WP 3WP 4

WP1Define Target

Standards

Standardisation Workshops

StandardsMaintenance

IndustrialDeployment

IndustrialTesting

LinkedDesign IMS Project WP1

• Project Definition Phase• During this activity the core

consortium will be built• The main already existing standards

that will be targeted during the works will be checked and defined.

• Contacts with the different STEP working groups will be established.

WP1Define Target

Standards

WP1 – first achievements

• Quantum Lifecycle Management (QLM) standards: Following-up FP6-IMS PROMISE QLM Product Data Model QLM Messaging Interface

Integral part of The Open Group’s new Platform 3.0 forum Direction cited by Gartner and IDC Embracing Cloud, Big Data, Internet of Things

et al.

• Semantics FP7 LinkedDesign: the LinkedDesign Ontology Also applying The Open Group’s Universal Data

Element Framework (UDEF) which yields: Unambiguous identification of information

items Semantic Interoperability

WP1Define Target

Standards

Copyright (C) The Open Group 2011 8

The CL2M model of FP6-IMS PROMISE

Copyright (C) The Open Group 2011

Beyond Product Lifecycle Management

Historically, the PLM acronym is usually associated with the Beginning-of-Life (design & manufacturing) phase and is mainly focused on information about each series of products rather than every individual product instance

QLM is the next major leap beyond PLM, addressing instance-level, closed-loop lifecycle information management from Beginning, through Middle to End-of-Life

QLM standards and infrastructure will be applicable to other kinds of lifecycles such as supply chain, food and beverage, human, services etc.

QLM will increase competitiveness and enable new business opportunities

9

Why Quantum Lifecycle Management?

Copyright (C) The Open Group 2011

Livestock

Appliances

Food and Beverage

People

BarcodeTechnologies

Logistics

Machines

QLM Data Services, Knowledge

Management and Decision Support

Sensors

Environment

RFID Technologies

Aerospace

Scope of QLM

Copyright (C) The Open Group 2011

Middle of Life

Reduced maintenance or

care costs

Improved customer/ client

support

Reduction in failures

Middle of Life

Reduced maintenance or

care costs

Improved customer/ client

support

Reduction in failures

Beginning of Life

Exploit knowledge of past lifetime

histories

More effective BOL management

e.g. productre-design or

reduced costs

Beginning of Life

Exploit knowledge of past lifetime

histories

More effective BOL management

e.g. productre-design or

reduced costs

End of Life

Cost-effectivecomponent

recovery

Increased reuse of parts

Verification of proper disposal

End of Life

Cost-effectivecomponent

recovery

Increased reuse of parts

Verification of proper disposal

Reduced care and maintenance costsReduced care and maintenance costs

Focused recall/outreachFocused recall/outreach

Improved traceabilityImproved traceability

Improved inventory managementImproved inventory management

Reduced counterfeitsReduced counterfeits

QLM – Some Key Benefits

Copyright (C) The Open Group 2011

QLM

Cloud

Computing Real-time & Embedded Systems

Security

Trusted Technology

Semantic Inter-

operability UDEF

Enterprise Architecture

12

Open Group Synergy

Copyright (C) The Open Group 2011

QLM Architecture User requirements drawn from a wide

representation of industrial domains and applications

Applications cover the complete product lifecycle and across different industrial sectors

Specifications defined for each interface and component of the architecture

QLM Standards Data Model - Standard for “lightweight” product

lifecycle data representation Messaging Interface - Standard for lifecycle

information exchange with systems and “things” via Internet

QLM Work Group Deliverables

Copyright (C) The Open Group 2011

BOLBOL

Product DevelopmentProduct Development

Product SupplyProduct Supply MOLMOL EOLEOL

PLM@XMLPLM@XML

PLM ServicesPLM Services

ISA-95ISA-95

MANDATEMANDATE

STEP STEPSTEP-NCSTEP-NC

PLCSPLCS

Only in certainIndustries

Existing product data representation standards

Copyright (C) The Open Group 2011

Business AircraftSpl Ind EquipmentTelecom switchgearAircraft engineAvionics

Military shipCommercial shipMilitary aircraftCommercial aircraftSubmarinePower plantOil production rigs

ComputersLeisure vehiclesRadio/radar

AutomobilesTransmissionsSpecial m/c toolsAgri machineryEnginesTrucks

Power turbinesMining equipmentTrucksLanding gearElevatorsProcess plantArmy vehicles

Domestic appliancesConsumer electronicsBicyclesExhaust systems

BoatsLawn equipmentRail carsTransformers

Business AircraftSpl Ind EquipmentTelecom switchgearAircraft engineAvionics

Military shipCommercial shipMilitary aircraftCommercial aircraftSubmarinePower plantOil production rigs

ComputersLeisure vehiclesRadio/radar

AutomobilesTransmissionsSpecial m/c toolsAgri machineryEnginesTrucks

Power turbinesMining equipmentTrucksLanding gearElevatorsProcess plantArmy vehicles

Domestic appliancesConsumer electronicsBicyclesExhaust systems

BoatsLawn equipmentRail carsTransformers

Pro

du

ct

com

ple

xit

yLow

Medium

High

Pro

du

ct

com

ple

xit

yLow

Medium

High

Support complexity

Low Medium High

Support complexity

Low Medium High

PLCS QLM

Comparison with PLCS

Copyright (C) The Open Group 2011

Copyright (C) The Open Group 2011

Based on the PROMISE SOM (Semantic Object Model)

Enables efficient management of item-level product data

Addresses need for “lightweight” PLM standards

Implemented already in >10 application scenarios

Documented in publicly available project reports

Planned Semantic Interoperability through UDEF enabling

QLM Standard – Data Model

Copyright (C) The Open Group 2011

Based on the PROMISE Messaging Interface

Messaging interface specifications for data transfer between QLM components

Supports notification of lifecycle events in addition to sensor data management

Bi-directional communication with systems and “things”

Defined using XML schema

QLM Standard – Messaging Interface

Copyright (C) The Open Group 2011

QLM Interfaces and Components

QLM Data Services

QMI QMI QMI

QMI

Device controller

QLM DM/DSS

ERPExternal system

PEID-A

PMICore PAC

PEID-B

PMICore PAC

QMI

Device controller

External system

Com

preh

ensi

ve S

tudy

State of the Art

Standards Analysis

Industrial Practices Analysis

Dom

ain

Mod

ellin

g

Identification of Generic Concepts

Analysis of Use-cases Requirements

Identification of Specific Concepts O

ntol

ogy

Defi

nitio

n

Concepts Definition

Concepts Hierarchy & Relationships Identification

Object & Data Properties Creation

WP3, Soumaya El Kadiri, EPFL

Semantics: #1LinkedDesign Ontology

Literature Review & Survey Ontology Design Methodologies Best Practices

WP3, Soumaya El Kadiri, EPFL

Semantics: #2LinkedDesign Ontology

isSpecialization isSpecialization isSpecialization

o Upper Ontology

WP3, Soumaya El Kadiri, EPFL

Semantics: #3LinkedDesign Ontology

WP3, Soumaya El Kadiri, EPFL

EU project achievements #4

COMAU Specification

• Domain: • LCC Assessment for manufacturing lines

• Purpose:• Federated view on data and methods required for estimation and

calculation of LCC• Easy navigation through LCC components and knowledge• Embed level of relevancy for different costs

WP3, Soumaya El Kadiri, EPFL

EU project achievements #5

VW-TRIMEK Specification

• Domain:• Quality control in hot stamping process

• Purpose:• Federated view on data and information required for analysis and

diagnosis of produced workpieces and processes • Ability to identify correlation between manufacturing setup and

physical defects presence

WP3, Soumaya El Kadiri, EPFL

Semantics: #4LinkedDesign Ontology

AKER Specification

• Domain: • Knowledge Based Engineering

• Purpose:• Federated view on information about CAD models, projects and

resources• Easy navigation through resources used in design• Ability to manage KBE solutions and to provide semantics for a

business layer which controls the GUI

WP3, Soumaya El Kadiri, EPFL

Semantics: #5LinkedDesign Ontology

o LinkedDesign Network Ontology – LDO

Linked Design IMS Project WP2

• Standardisation Workshops• Begin standards development

workshops• Some workshops to be held

concurrently with targeted existing standards development committees to foster integration

LinkedDesign IMS Project WP3

• Industrial Deployment• Together with LinkedDesign

activities, developed standards will be tested and verified within specified application scenarios

LinkedDesign IMS Project WP4

• Standards Deployment• The standards that have been

defined and tested will be deployed to the industrial community

LinkedDesign IMS Project Work Package Five

• Standards Maintenance • This will be a long lasting activity

conducted within the technical committees of the targeted standards bodies to ensure continuous updates and improvements to the developed standards.

Outstanding International team

Well-balanced consortium with strong industrial involvement Partners build upon existing work relation from other bi-/multilateral collaborations

Partners are top in class in manufacturing and knowledge management

International leaders in standards development

Ways to Participate

• Niche Technology Supplier• Research Institution• End User

– This is where many industrial partners fit in– Standards Testing, Improvement, and Deployment– Support through National Committees for

Adoption of Standards developed within the project

http://www.linkeddesign.eu/