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le centre collectif de l’industrie technologique belge Additive Manufacturing for Biomedical applications Grégory Nolens & Carsten Engel Workshop, January 23th 2014
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Additive manufacturing for biomedical applications

Oct 19, 2014

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The utility of additive manufacturing technologies in the medical field. An overview of existing and future technologies and applications
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Page 1: Additive manufacturing for biomedical applications

le centre collectif de l’industrie technologique belge

Additive Manufacturing for Biomedical applications

Grégory Nolens & Carsten Engel

Workshop, January 23th 2014

Page 2: Additive manufacturing for biomedical applications

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] | 2

130 experts & high-tech infrastructure

Collective centre

of the technology industry

• Non profit organization

• Industry owned

4,700 industrial interventions

(advice, projects, services)

•within 1,700 different companies

•whose 75% are SME’s

•24M EUR turnover

Mission

“Increase the competitiveness of companies of

the Agoria sectors through technological

innovations”

Page 3: Additive manufacturing for biomedical applications

3

Additive Manufacturing/3D Printing :

Basic Principles

Basic data :

Layer by layer manufacturing

3D CAD File 3D STL File Sliced File

Starting point:

3D CAD file

CENG

© sirris 2012 Charleroi | www.sirris.be | [email protected] | 23/01/2014

Page 4: Additive manufacturing for biomedical applications

3D Printing – Next

• Obama said (feb. 2013): "A once-shuttered warehouse is

now a state-of-the art lab where new workers are mastering

the 3-D printing that has the potential to revolutionize the

way we make almost everything“

“We can’t wait” initiative

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] | 4

Page 5: Additive manufacturing for biomedical applications

Fashion effect – public machine

• Design, gadget,

• but also functional and caring

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] | 5

Page 6: Additive manufacturing for biomedical applications

Industrial and technical products

• Prototyping

• No assembly

• Personalized

• Technical

• Porous

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] | 6

Page 7: Additive manufacturing for biomedical applications

23/01/2014 7

Additive Manufacturing : Basic Principles

Advantages of using AM … try something new !

• Low-cost ability to easily try out ideas generates many

innovations

• AM has seen children returning to making things. From

digital into reality.

• Testing the market with an idea with small production

• Alows inventors to realize their inventions and test

their market

© sirris 2012 Charleroi | www.sirris.be | [email protected] |

Page 8: Additive manufacturing for biomedical applications

23/01/2014 8

Additive Manufacturing : challenges

Variety of materials still not vast enough

Lack of precision on some technologies

Machines still very pricy (industrial)

Need of certification and qualification of materials & process

Lack of surface quality and finishing

Not suited for big series (automobile)

© sirris 2012 Charleroi | www.sirris.be | [email protected] |

Page 9: Additive manufacturing for biomedical applications

9

Additive Manufacturing technologies @ Sirris

SIRRIS – European leader: Most complete machine park

• 15 engineers and technicians

• Two locations: Liège (10 p.) and Charleroi (5 p.)

Rapid Prototyping / Tooling / Manufacturing

• Stereolithography (normal & hi-res)

• Paste polymerisation for ceramics and metals (Optoform)

• 3D Printing of plaster and metal powder

• Laser sintering of polymeric powder (PA,…): P360 – P390

• Objet Connex 500: bi-material

• Laser sintering of metal powder (parts and mould inserts)

• Electron Beam Melting (Arcam A2)

• 3D Printing of wax (Thermojet)

• Vacuum Casting of Alu, Bronze, Zamak

• Laser Cladding (EasyClad)

• Selective Laser melting (MTT)

• Mcor - paper

• Bi-material FDM system

CENG

© sirris 2012 Charleroi | www.sirris.be | [email protected] | 23/01/2014

Page 10: Additive manufacturing for biomedical applications

23/01/2014 10

Next generation pre-operative manufactured implants:

• Custom implant manufacture :

• CT-Scan

• CAD File of the patient is produced

• Engineer + Surgeon 3D implant approved

• FEM analysis (when needed)

• Custom manufacturing (low cost)

• Surgery

• Follow up

© sirris 2012 Charleroi | www.sirris.be | [email protected] |

CENG

[Sirris ADD]

[Sirris ADD]

[Sirris ADD]

The utility of Additive Manufacturing technologies

in the medical field

Page 11: Additive manufacturing for biomedical applications

11

Medical Additive Manufacturing Software:

ADD capacities & competencies

CENG

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] |

• Materialise: Mimics

• Materialise: 3matic

• Marcam: Autofab

• Able Software Corp: 3D Doctor

• Medicim: Maxilim

• ProEngineer

• New: Lenexa: Analyze

• New: Brisbane: Anatomics

• (…)

[Mimics & 3-matic - Materialise]

Page 12: Additive manufacturing for biomedical applications

23/01/2014 12

Additive Manufacturing in the medical field

Leading applications:

• Custom implant manufacture (Scanning/Custom Prosthesis Design) • Pre-surgical planning • Physician to physician communication

• Powerful patient presentation tool

• Medical student/resident education

© sirris 2012 Charleroi | www.sirris.be | [email protected] |

CENG

[Z. Corp Medical Modeling Solutions]

[Z. Corp Medical Modeling Solutions]

[Arcam & Objet technology]

[Sirris ADD]

Page 13: Additive manufacturing for biomedical applications

23/01/2014 13

Leading applications:

• Pre-surgical planning:

• Implant pre-contouring • Screw trajectory • Screw selection/location • Instrument selection • Technique rehearsal

© sirris 2012 Charleroi | www.sirris.be | [email protected] |

CENG

[Objet]

[Objet]

[Objet Connex Eden 500]

[Objet]

“No matter how good our 3-D graphics are, there is

nothing like a model in your hands . . .”

The utility of Rapid Prototyping / Manufacturing in

the medical field

Page 14: Additive manufacturing for biomedical applications

23/01/2014 14

Medical Field: CASE STUDIES @ SIRRIS

Leading applications:

• Physician to physician communication

• Powerful patient presentation tool

• Medical student/resident education

© sirris 2012 Charleroi | www.sirris.be | [email protected] |

CENG

[Sirris ADD] [Sirris ADD]

[Sirris ADD] [Sirris ADD] [Sirris ADD] [Sirris ADD]

Page 15: Additive manufacturing for biomedical applications

23/01/2014 15

Medical Field: CASE STUDIES @ SIRRIS

© sirris 2012 Charleroi | www.sirris.be | [email protected] |

CENG

Spinal & CMF case studies in ceramic

• Porous scaffolds for Spine surgery

• In vivo testing for bone integration

• Validation production by Sirris Tech transfer

• Field: Maxillofacial Surgery in France, production in Belgium

[Sirris ADD]

[Sirris ADD] [Sirris ADD]

Page 16: Additive manufacturing for biomedical applications

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Medical field: Industrial Case studies

© sirris 2012 Charleroi | www.sirris.be | [email protected] |

CENG

Project: “In vitro testing models - arteries”

• Goals:

• To gain biomechanical know-how

• Virtual prototyping, device testing, virtual design iterations

• Diagnostic research

• Technologies involved: Connex Eden 500 bi-material 3D inkjet printing

23/01/2014

Page 17: Additive manufacturing for biomedical applications

23/01/2014 17

Medical Field: CASE STUDIES @ SIRRIS

© sirris 2012 Charleroi | www.sirris.be | [email protected] |

CENG

Surgical Cutting Templates

• UCL-St Luc (Belgium) • UCL spin-off: VISYOS • Polyamide cutting patient-custom cutting tools

• SLS technology + bio-coating

[VISYOS] [VISYOS]

Page 18: Additive manufacturing for biomedical applications

23/01/2014 18

Medical Field: CASE STUDIES @ SIRRIS

© sirris 2012 Charleroi | www.sirris.be | [email protected] |

CENG

Surgical Cutting Templates – reimbursement problem

Surgical guides not reimbursed, but facts are:

- 1 min. in surgical theatre (estimated): 60€

- Mean of orthopedic surgery duration: 5-12h (18k-44k€)

- Surgical guide can reduce: 20-70% of the duration (TBC)

- Surgical guide cost: 50-300€

- Economy: estimated 3-30k€/surgery

Page 19: Additive manufacturing for biomedical applications

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Medical Field: CASE STUDIES in the world

© sirris 2012 Charleroi | www.sirris.be | [email protected] |

CENG

23/01/2014

[Dr J. Poukens – Uhasselt, Xilloc Medical (Maastricht)]

Page 20: Additive manufacturing for biomedical applications

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World’s first total mandible implant in Titanium

© sirris 2012 Charleroi | www.sirris.be | [email protected] |

CENG

23/01/2014

[UHasselt, Layerwise, Xilloc, Sirris, CamBioceramics, Orbis Medisch Centrum, Xios, KUL]

Page 21: Additive manufacturing for biomedical applications

21 © sirris 2012 Charleroi | www.sirris.be | [email protected] |

CENG

Finger implant (Dr. P. Ledoux, Prof. G. Guerlement UMONS)

23/01/2014

Towards newly designed implants

[Université de Mons, Faculté Polytechnique]

Page 22: Additive manufacturing for biomedical applications

22 © sirris 2012 Charleroi | www.sirris.be | [email protected] |

CENG

23/01/2014

The future of bio-manufacturing…not so far away!

Page 24: Additive manufacturing for biomedical applications

23/01/2014 24 © sirris 2012 Charleroi | www.sirris.be | [email protected] |

Bioprinting – an emerging technology

Bioprinting place in emerging technologies, from the Hype Cycle for Emerging

Technologies 2013- Gartner

Page 25: Additive manufacturing for biomedical applications

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Market approach interest for companies?

© sirris 2012 Charleroi | www.sirris.be | [email protected] | 23/01/2014

• Applications:

• Drug discovery & Assays

• Cell therapy + Tissue Engineering

• Bioprocess

• In vitro diagnostic & research

• Food

Page 26: Additive manufacturing for biomedical applications

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Drug Discovery and Assays

© sirris 2012 Charleroi | www.sirris.be | [email protected] | 23/01/2014

• Facts: Drug Discovery and Assays

• 90-95% of drugs approved on animal (mouse, rabbit, etc.), was not

for human lot of money lost, ethic problem

• Animal use: 10-100 Mio in US/year

• European Comission banning: FULL on cosmetic (2013), next

pharma (?)

Page 28: Additive manufacturing for biomedical applications

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Cell Therapy & Tissue engineering

© sirris 2012 Charleroi | www.sirris.be | [email protected] | 23/01/2014

• Facts: Tissue engineering

• Alternative to donor waiting list

• Limited available « material » resource (skin, organs, cells, …)

Page 29: Additive manufacturing for biomedical applications

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Cell Therapy & Tissue engineering

© sirris 2012 Charleroi | www.sirris.be | [email protected] | 23/01/2014

• Facts: Cell Therapy

Cell therapy industry market

(2008–2014).

Graph showing the estimated

CTI revenues from 2008–2014

Page 30: Additive manufacturing for biomedical applications

30

Cell Therapy & Tissue engineering

© sirris 2012 Charleroi | www.sirris.be | [email protected] | 23/01/2014

• Facts: Cell Therapy

High potential for

Small defect repair

Page 35: Additive manufacturing for biomedical applications

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Food & Agriculture

© sirris 2012 Charleroi | www.sirris.be | [email protected] | 23/01/2014

• Applications:

• New food process?

Focus on food player with Life

Science approach: biomaterial

( e.g. Tissue engineering)

Page 36: Additive manufacturing for biomedical applications

Bioprinting

• Where beginning R&D?

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] | 36

Page 37: Additive manufacturing for biomedical applications

Tissue engineering basics

• Lamarck (1744–1829): La fonction crée l’organe

(The function creates the organ).

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] | 37

Page 38: Additive manufacturing for biomedical applications

Tissue engineering basics

• Lamarck (1744–1829): the function creates the organ.

daylife example: tissue reacts to device

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] | 38

« 2nd skin » development

Page 39: Additive manufacturing for biomedical applications

Tissue engineering basics

• One scaffold can be enough

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] | 39

Tube with structure mimicking vascular matrix Rat implantation

Cell infiltration differentiation scaffold disapear tissue restorated

Page 40: Additive manufacturing for biomedical applications

Tissue engineering basics

Scaffolds + stem cells + growth factors = work better

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] | 40

Artificial heart tissue (Taylor, Minnesota, 2009)

Artificial kidney tissue

Scaffolds come from animal washed for cells

Page 41: Additive manufacturing for biomedical applications

3D Bioprinting solutions

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] | 41

Personalized

scaffolds

incubation with

stem cells

IPL, UGent, …

Page 42: Additive manufacturing for biomedical applications

3D Bioprinting solutions

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] | 42

Nanostructure for

fluidic, cell interaction,

scaffold,…

2PP (two photon

polymerisation)

Very small devices

Nanoscribe

Page 43: Additive manufacturing for biomedical applications

3D Bioprinting solutions

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] | 43

Industrial machines

Personalized

scaffolds

incubation with

stem cells

(and cell printing)

EnvisionTech, GESIM, Regenovo (China)…

Page 45: Additive manufacturing for biomedical applications

Bioprinting players in the world

23/01/2014 © sirris 2012 Charleroi | www.sirris.be | [email protected] | 45

• Keyplayers outside Europe

• Dr. Shinya Yamanaka (JPUS): stem cells

• Dr. Anthony Atala (US, Boston)

• Wake Forest University (US, North Carolina)

• ACES (Australia) biopen

• China

Page 47: Additive manufacturing for biomedical applications

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CENG

« Medical Additive Manufacturing & Rapid Prototyping »

« Sirris »

© sirris 2012 Charleroi | www.sirris.be | [email protected] | 23/01/2014

Page 48: Additive manufacturing for biomedical applications

48

Sirris Additive Manufacturing: Contact

© sirris 2012 Charleroi | www.sirris.be | [email protected] |

CENG

23/01/2014

Carsten ENGEL, Ir, MBA

Department of Additive Manufacturing

Mail: [email protected]

Mobile: +32 498 91 94 50

Skype: Carsten-Engel

SIRRIS

Rue Auguste Piccard, 20

B-6041 GOSSELIES BELGIUM

http://www.sirris.be

Grégory NOLENS, PhD

Department of Additive Manufacturing

Mail: [email protected]

Mobile: +32 498 91 94 75

Skype: gnolens

SIRRIS

Rue Auguste Piccard, 20

B-6041 GOSSELIES BELGIUM

http://www.sirris.be