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Additive Manufacturing e Stampa 3D - NetConsulting · PDF fileAdditive Manufacturing e Stampa 3D: ... solidification by fusion, ... Shape customization, etc. Car racing (ex.: F1)

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Additive Manufacturing e Stampa 3D:La visione di Dedagroup

Renato Bocchi – Head of Industry 4.0, Dedagroup

What is 3D Printing/Additive Manufacturing ?Definition

A process of joining materials to make physical objects from 3D CAD model, usually layer upon layer, as opposed to subtractive manufacturing or molding/casting technologies

Additive Manufacturing allows for building metallic parts with very complex geometries (actually impossible with conventional methods) without tooling, fixtures and without producing any waste material

This is a revolution in the world of manufacturing …

… but to date, existing CAD systems was not able to address the challenges of this new technology

3

http://youtu.be/OhYvDS7q_V8?list=PLF992841F1A4677FASource:

What is 3D Printing/Additive Manufacturing ?Two main Additive Manufacturing processes

Bed-based Materials(powder, liquid) Powder bed processes consolidate

thin layers of powder or liquid to solidify scans of the sliced Computer Aided Design (CAD) data

Feeder-based Materials(powder, wire, liquid) Focused selective material

deposition (wire, powder, liquid) and solidification by fusion, polymerization or cooling depending on the process

4

Source:

Additive Manufacturing processesBed-based Materials (powder, liquid)

5

ADDITIVE MANUFACTURING CATEGORIE

PROCESS TYPE

MATERIAL TYPE

Notes

POWDER BED FUSION

Thermoplasticselastomers

Ferrous & non ferrous alloys

Non ferrous alloys

BINDER JETTING in Powder VAT

Composite materials

VAT LIQUID POLYMERIZATION

Polymers

MATERIAL JETTING

Digital Materials, Wax

MATERIAL EXTRUSION

ABS, Nylon

Selective Laser Sintering(SLS)

Selective LaserMelting(SLM)

Electron BeamMelting(EBM)

Full color printingStereolithography

(SLA)PolyJet (PJ),

MultiJet Printing (MJP),

Wax DepositionModeling (WDM)

Fused DepositionModeling (FDM),Fused Filament

Fabrication (FFF)https://www.youtube.com/watch?v=9E5MfBAV_tA

https://www.youtube.com/watch?v=Mjf6oaMVWr8

https://www.youtube.com/watch?v=BxxIVLnAbLw&index=14&list=PLUMSQMrg3EMuAk6fQAkxnGsR49nrb_tho

https://www.youtube.com/watch?v=VBK_4ruKC8s

https://www.youtube.com/watch?v=oNpAnBhgIIs

https://www.youtube.com/watch?v=Som3CddHfZE

https://www.youtube.com/watch?v=MX0HPjc-3aw

https://www.youtube.com/watch?v=9RuJ_Ejc4WQ

https://www.youtube.com/watch?v=SPtkOmP_HoA

https://www.youtube.com/watch?v=GxLjDNrQBgs&index=3&list=PLwpDxJ0jrz6jpFFp4xLP9e2B1aaRdBC3K

POWDER BED FUSION: thermal energy selectively fuses regions of a powder bed

VAT POLYMERIZATION: liquid polymer in a vat is selectively cured by light-activated polymerization

MATERIAL JETTING: droplets of build material are selectively deposited onto a build bed to develop a three-dimensional object

MATERIAL EXTRUSION: extruding of thermoplastic materials

BINDER JETTING: a liquid bonding agent is selectively deposited to join powder materials

Source:

Main benefits of Additive Manufacturing technology 6

Source:

[1/3]

Main benefits of Additive Manufacturing technology 7

Source:

[2/3]

Design freedom Leverage topological optimizations Hollow parts with internal lattices

become possible Function integration

Weight reduction Topological optimizations Hollow parts with an internal lattice to

keep/improve mechanical strength

Costs reduction No more need of expensive tooling Manufacturing/assembly cost reduction

with parts integration (1 single part instead of 20)

Function integration

Speed up manufacturing process No lead time for tooling Shorten assembly process with “parts

integration”

High material utilization No waste of material - less than 10% Buy-to-Fly ratio reduction

Ability to manufacture on-site, reducing logistics complexity Inventory Shipments

Main benefits of Additive Manufacturing technology 8

Source:

[3/3]

Proof Points3D Print Technology – industry metrics

3D printing market is expected to grow 500% over the next 5 years

Survey of over 1,000 Stratasys 3D printer owners Almost 1/3 reported a 25% or higher improvement in product launch times

O (NASCAR team) uses AM to accelerate new part designs

O estimates: 3D printing helped reduce development time by as much as 75%

O "Within 6 months we were able to go through 12 rounds of prototype iterations that we fully tested”

9

Source:

Main industries interested by Additive Manufacturing 10

Aerospace & Defense industry Weight reduction Function integration Buy-to-Fly reduction Spare parts management

Automotive Weight Function integration

Medical industries Weight reduction Shape customization, etc.

Car racing (ex.: F1) Weight reduction Optimization

Source:

AM: a big impact on the design itself New, impossible before, geometries for

manufacturing Old design constraints for designers vs. too

much design freedom … Current design decisions based on known

limits of traditional manufacturing processes Machining, casting, plastic injection, etc.

3D modeling issues: Impossible to create specific CAD models for

AM – optimized with internal lattices No specific features, large models,

performance issues, etc. Impossible to simulate parts with internal

lattices Lattices created with external manufacturing

applications CAD reconstruction after external topological

optimization very painful and complex No printability check

Design rules, supporting structure, etc.

CAD models (exact representation)converted into tessellated models (approximation. E.g. STL format) to be manipulated for 3D printing

Often an intermediary software needed to prepare the files to be printed

Ensure watertightness Correct normals Assign colors …

One or several software applications for each 3D printer/printer manufacturer …

CAD/CAM and Additive ManufacturingTwo separated domains …

11

CAD/CAMDomain

Source:

[1/2]

AM: a big impact on the design itself New, impossible before, geometries for

manufacturing Too much freedom vs. new design constraints

for designers … Current design decisions based on known

limits of traditional manufacturing processes Machining, casting, plastic injection, etc.

3D modeling issues: Impossible to create specific CAD models for

AM – optimized with internal lattices No specific features, large models,

performance issues, etc. Impossible to simulate parts with internal

lattices Lattices created with external manufacturing

applications CAD reconstruction after external topological

optimization very painful and complex No printability check

Design rules, supporting structure, etc.

AdditiveManufacturing

Domain

CAD models (exact representation)converted into tessellated models (approximation. E.g. STL format) to be manipulated for 3D printing

Often an intermediary software needed to prepare the files to be printed

Ensure watertightness Correct normals Assign colors …

One or several software applications for each 3D printer/printer manufacturer …

CAD/CAM and Additive ManufacturingTwo separated domains …

12

Source:

[2/2]

Additive Manufacturing benefits:Still under-realized/under-achieved

13

Source:

3rd Party ToolsLatticecreation

Latticeanalysis Print

validation OriginalDesign

A.2

Latticeoptimization

A.2.1RevisedDesign

[1/2]

Additive Manufacturing benefits:Still under-realized/under-achieved

14

Source:

3rd Party ToolsLatticecreation

Latticeanalysis Print

validation OriginalDesign

A.2

Latticeoptimization

A.2.1RevisedDesign

[2/2]

Lattice creation/optimization exploits the value of AMWithout specialized tools, designs are over-engineered and rarely optimized to take advantage of Additive Manufacturing

Reliance on 3rd party solutions and manual effort will not support long-term goals

Manual lattice creation and optimization: too tedious and costlyCAD + 3rd party solutions: manual, disconnected, cumbersome, expensive process that cannot be automated or optimized

Create/analyze lattice, validate geometry, recreate final B-rep geometry …

Additive Manufacturing can reallyrevolutionize engineering and design

Engineers want to… Create innovative products not

limited by the constraints of traditional manufacturing

Use a single solution for: 3D print design, analysis and geometry optimization

Eliminate 3rd party solutions and avoid time-consuming rework

Companies want to… Apply next-generation manufacturing

techniques to overcome barriers to manufacturing

Deliver products exceeding quality, performance and durability standards

Achieve competitive differentiation

15

Source:

Lattice featureKey:

Creo Additive Manufacturing Extension (AMX)Lattice feature: creation, analysis and optimization

16

Automated creation of 2 ½ D , 3D and Conformal Lattices Single feature with parametric control over all aspect of the lattice structure Full B-rep geometry (NOT an approximation using facet geometry)

Seamless analysis and optimization of lattice structure Lattices are optimized using Creo Simulate Idealized elements for faster analysis

Source:

Creo Additive Manufacturing Extension (AMX)Lattice feature: creation, analysis and optimization

17

Automated creation of 2 ½ D , 3D and Conformal Lattices Single feature with parametric control over all aspect of the lattice structure Full B-rep geometry (NOT an approximation using facet geometry)

Seamless analysis and optimization of lattice structure Lattices are optimized using Creo Simulate Idealized elements for faster analysis

ORIGINAL DESIGN

– Material: Titanium

– Tensile Yield Stress: 139.96 MPa

– Tensile Ultimate Stress: 219.94 MPa

– Mass: 6.09 kg

SIMULATION RESULTS

– Max Stress (Von Mises): 36.23 MPa

– Max Displacement: 0.044 mm

OPTIMIZED DESIGN

– Material: Titanium

– Tensile Yield Stress: 139.96 MPa

– Tensile Ultimate Stress: 219.94 MPa

– Mass: 3.28 kg ( – 46.21 %)

SIMULATION RESULTS

– Max Stress (Von Mises): 104.22 MPa

– Max Displacement: 0.086 mm

A.2

A.2.1*

A.2.1M

OPTIMIZEVALIDATE

A.2.1

A.2.1

A.2.1

Source:

Creo Additive Manufacturing Extension (AMX)Other capabilities

3D Printers connectivity Broadening the ecosystem Bi-directional exchange of

information between Creo and 3D Printers

Tray assembly A repository for parts/assemblies

to be printed, assign material and store other attributes/parameters

Nesting A method for optimizing the tray

18

Source: [1/4]

Creo Additive Manufacturing Extension (AMX)Other capabilities

3D Printers connectivity Broadening the ecosystem Bi-directional exchange of

information between Creo and 3D Printers

Tray assembly A repository for parts/assemblies

to be printed, assign material and store other attributes/parameters

Nesting A method for optimizing the tray

19

Source: [2/4]

Creo Additive Manufacturing Extension (AMX)Other capabilities

3D Printers connectivity Broadening the ecosystem Bi-directional exchange of

information between Creo and 3D Printers

Tray assembly A repository for parts/assemblies

to be printed, assign material and store other attributes/parameters

Nesting A method for optimizing the tray

20

Source: [3/4]

Creo Additive Manufacturing Extension (AMX)Other capabilities

21

Source: [4/4]

❶ ❷ ❸

❹ ❺ ❻

Creo Additive Manufacturing Extension (AMX)Beyond Creo 4.0

FUTURE

Tray Assembly

Analysis-driven lattices

+Topology

Optimization (Partners)

Printability Checking

(Parts + Assemblies)

ADDITIVE MFG

High-Order Facets

(Only Output)

3D Printer Connectivity(Stratasys and

others)

NC/ INSPECTION/

MOLD

2 ½ D & 3D Lattices

Split large parts

Support Structures

Optimization

ADDITIVE MFG

Multi & Graded

Materials

3D nesting

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PROFILO AZIENDALEFebbraio 2017

Dedagroup24

Siamo uno dei più importanti attori dell'Information Technology “Made in Italy”.

Supportiamo Aziende, Enti Pubblici e Istituti Finanziari nelle loro strategie IT con competenze applicative, tecnologiche e di systemintegration.

L’headquarter si trova a Trento – terra d’eccellenza per esperienze d’innovazione –ma il nostro Gruppo, con filiali in Italia e all’estero, supporta oltre 3.600 clienti in tutto il mondo.

Chi siamo NumeriMission

Accompagniamo aziende ed enti nella trasformazione digitale, aiutandoli a progettare il cambiamento.Con i nostri clienti e per i nostri clienti individuiamo strategie, architetture, soluzioni e competenze perché possano crescere e rimanere innovativi nel tempo. Partendo dall’Italia, terra d’eccellenza, portiamo le nostre soluzioni in tutto il mondo.

1.600+PERSONE

230 M€FATTURATO

10ANNI CONSECUTIVI DI CRESCITA

40PAESI IN CUI ABBIAMO CLIENTI

CAPACITÀ NEL SETTORE INDUSTRIALEFebbraio 2017

DISCRETE

MANUFACTURING

Segmenti26

AUTOMOTIVEMACHINERYAEROSPACEELECTRONICSMEDICAL DEVICESRAILWAYS

PROCESS

MANUFACTURING

BIOTECHNOLOGYFOOD & BEVERAGEOIL & GASCHEMICAL

DIVERSIFIED

MARKETS

GROCERYDISTRIBUTED FACILITIESWAREHOUSING

Punti di forza27

DISCRETE

MANUFACTURING

PROCESS

MANUFACTURINGDIVERSIFIED

MARKETS

KNOW-HOW SULLE PRATICHE INDUSTRIALI

GRANDE CAPACITÁ DI DELIVERY

ABILITÁ NELL’INTEGRAZIONE DI SOLUZIONI E PIATTAFORME

FORNITURA DI SERVIZI SPECIALIZZATI

"CROSS FERTILIZATION"

COPERTURA TERRITORIALE ESTESA IN ITALIA E ALL’ESTERO

PARTNERSHIPS QUALIFICATE

1.000+ CLIENTI

Discrete Manufacturing – Expertises28

SALES & MARKETING SUPPLY CHAINRESEARCH &

DEVELOPMENT MANUFACTURING AFTERMARKET SERVICES

OPERATIONS & COMPLIANCE

Design for MFG

CRM

Sentiment Analysis

Digital Marketing

Demand & Supply Planning

WarehouseManagement

TransportationManagement

Inventory Optimization

Finite CapacityScheduling

Performance-Based Monitoring/OEE

Process & Shop Floorcontrol systems

MES/SCADA

FinancialPlanning & Analysis

Treasury & Financial Risk Managemnt

Reach & CO2Omni Channel

MBSE/Systems Engineering

Conformity/Homologation

Prototyping & Testing Material Handling

Health & SafetyAdditive MFG Supplier/CustomerCollab.portals

Enterprise Resource Planning (ERP)

Quality

Product Data Management (PDM) – Product Lifecycle Management (PLM)

Change Management

Internet of Things (IoT)

Augmented Reality

Product Costing

Business Analytics/Big Data/Machine Learning

Requirements Management/ALM

CAD/CAM/CAEECAD

ServicePart Management

Predictive/ProactiveMaintenance

Repair & Tracking

SLM

Asset management

Additive MFG

TechnicalDocumentation

Health & Safety

Industrial IT – Capacità29

IT STRATEGY

Project & Program Management

Application management

Service management & Governance

Infrastructuresmanagement

Transition & transformation

Validation

Application integration

Cloud (SaaS, IaaS, BaaS)

Connectivity

Cybersecurity

HW & SW selection

Telecommunic.

HW & SW provisioning

EDI

Qualification & Auditing

Help Desk

Application development

IT Outsourcing

Business Process Outsourcing

Conoscenze tecnologiche e certificazioni Tecnologie CAD/CAM/CAE, PDM, ALM, PLM & IoT

PTC, Siemens, Dassault, AutoDesk, Mentor, etc.

VAR PTC dal 2001 Certificazione "PTC Windchill Authorized Partner" (PLM) Certificazione "PTC Integrity Configuration and Customization" (ALM) Certificazione "PTC's Authorized Training Partner" (CAD) Certificazioni "ThingWorx Implementer" (IoT)

Best practices/Metodologie

Conoscenza dei settori industriali Industria automobilistica Aerospaziale e Difesa Meccanica Elettronica e High Tech Scienze naturali

Esperienza nel processo di sviluppo prodotto Idea → Progettazione → Industrializzazione → Produzione → Servizi

Consulenza, integrazione e infrastruttura Qualificazione, auditing e pratiche di validazione tecnica

CO

NSU

LEN

ZA

INTE

GR

AZI

ON

EIN

FRA

STR

UT

TUR

A

Fornitura e supporto workstations e server

Hosting per applicazioni aziendali, virtualizzazione workstations e server

Manutenzione applicazioni, support tecnico, SPOC

Sviluppo e configurazione applicazioniCAD, PLM, IoT, integrazione di sistemi

Generazione della “visione” PLM/SLM/IoT, valutazioni AS-IS, business cases, business process reenginering

Servizi di supporto per l’ingegneria

Clo

ud

Fornitura di soluzioni software CAD, PLM, IoT

Sviluppo Prodotto → Servizi7

Partnerships31