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Research overview Advanced Manufacturing in Switzerland Schweizerische Akademie der Technischen Wissenschaften Académie suisse des sciences techniques Accademia svizzera delle scienze tecniche Swiss Academy of Engineering Sciences
Content
5 Foreword
7 Introduction
8 Additive Manufacturing: Definition and icons
9 Industry 4.0: Definition and icons
10 Overview ETH, Universities and Research Centers
11 Overview Universities of Applied Science
12 Additive Manufacturing
13 CSEM
13 Empa
15 EPFL
15 ETH Zürich
20 Innocampus
20 Inspire
21 Universität Basel
21 Universität Bern
22 Université de Neuchâtel
24 Universitäts-Kinderspital Zürich
24 Berner Fachhochschule
25 Fachhochschule Nordwestschweiz
26 HES-SO Haute école spécialisée de Suisse occidentale
28 Hochschule Luzern
28 HSR Hochschule für Technik Rapperswil
29 Interstaatliche Hochschule für Technik Buchs
29 SUPSI
31 Zürcher Hochschule für Angewandte Wissenschaften
34 Industry 4.0
35 CSEM
36 EPFL
36 Innocampus
36 Inspire
37 Universität Bern
37 Université de Neuchâtel
39 Universität Zürich
39 Berner Fachhochschule
42 Fachhochschule Nordwestschweiz
44 HES-SO Haute école spécialisée de Suisse occidentale
46 Hochschule Luzern
47 HSR Hochschule für Technik Rapperswil
47 Interstaatliche Hochschule für Technik Buchs
48 SUPSI
50 Zürcher Hochschule für Angewandte Wissenschaften
3
Acknowledgment
SATW would like to thank all participating Universities, Universities of Applied Science and Research Centers
for the texts and the pictures. Without the great effort of the different institutes, the publication could not
have been compiled to be such an impressive body of work.
4
Foreword
Over the past few decades, the Swiss economy has demonstrated high added value com-
bined with high employment in comparison with most other developed countries. Our
industrial sector has grown more quickly than in neighbouring countries and has brought
us prosperity and low unemployment. It has even managed to offset the shock waves
created by the revaluation of the Swiss franc. So nothing is amiss?
Quite the contrary: industrial production is currently in the grip of rapid and fundamental
change, promising high quality and flexibility for products at lower cost (even for small
quantities). This has strengthened the competition, placing the Swiss industrial sector
under growing pressure if it fails to keep up with manufacturing changes. Through this
overview, SATW is aiming to help boost the domestic industry.
Ulrich W. Suter, President of SATW
5
Swiss Academy of Engineering Sciences (SATW)
The Swiss Academy of Engineering Sciences (SATW) develops recommendations for action on technical topics
that are particularly important for Switzerland as a living environment as well as a workplace and research
environment. It fosters public interest in and understanding of technology, and works toward the prevention
of and appropriate reaction to cyber security threats as part of its focus on cyber security. A federally recog-
nized institution, the SATW brings together a large network of experts and professional associations. It is
politically independent and non-commercial.
6
Introduction
SATW is convinced that industrial production methods will see fundamental changes
over the coming years. Mastering new production technologies (advanced manufac-
turing) such as additive manufacturing and industry 4.0 will be vital to keep Swiss
production at a competitive level.
New additive manufacturing processes such as 3D printing offer revolutionary oppor-
tunities and have the potential to replace traditional production methods. Industry 4.0
has seen the definition of a new concept for production control and product design,
with the potential for major upheaval.
Both topics are being discussed at conferences, and a number of Swiss research activ-
ities are already focusing on the two areas. SATW aims to help improve coordination
between these activities in order to identify and improve weaknesses.
To this end, SATW has created the “Advanced Manufacturing in Switzerland” research
overview. The activities of its research partners (universities, universities of applied
sciences and research centers) in the fields of additive manufacturing and industry 4.0
were examined in detail, and are presented in this publication and the associated tables.
This publication offers brief texts describing the activities and areas of competence of
the institutes involved, highlighting contributions in the two subject areas of “Addi-
tive Manufacturing” and “Industry 4.0”. Within the thematic groups, the texts are ar-
ranged in alphabetical order by university.
To ensure that the data can be simply and clearly accessed, each institute is assigned
a maximum of six overarching terms from the two subject areas to reflect their activi-
ties and areas of competence. This information can be found in table form (pages 10
and 11) and as striking icons next to the texts themselves. This enables users to system-
atically search the research review for a particular institute, or for stakeholders with
specific interests.
With this publication, SATW is offering an overview of the astonishing number of stake-
holders and the exceptionally wide variety of activities in the sector – we hope you
enjoy reading it.
7
Additive Manufacturing Definition Additive manufacturing describes a large group of manufacturing procedures which use a 3D model to construct components in lay- Additive Manufacturing ers from a formless substance via an automated process. Breaking a three-dimensional component down into numerous simple two-dimensional manufacturing steps means that the complexity Architecture of a particular component only has a very minor impact on manu- facturability and production costs. Toolless manufacturing using an automated process also enables individual parts and small Bioprinting batches to be produced economically. The benefits of additive manufacturing lie in its huge freedom of design for the engineer, and in its flexibility which for example makes customised products Data Acquisition possible. Typical examples of additive manufacturing of plastic components Design (part design and optimization) – also known as 3D printing in the media – are stereolithography (hardening a photopolymer layer by layer), fused deposition mod- Economics elling (polymer melt output from a heated nozzle), and selective (business models and supply chain) laser sintering (fusing plastic powder in a powder bed with a laser beam). For metal parts, selective laser melting and electron beam melting are used: a laser or an electron beam systematically fuses Judicial Aspects metal powder in a powder bed. The recent explosion of interest in organ printing has led to the Material (development, qualification, testing) development of new types of robotic systems for the production of cell-containing living constructs mimicking the structure of Process (machine development, software different tissues and organs, such as blood vessels, nerves, skin, chain, control systems, simulation) cornea, cartilage, and bone. However, the use of robotic bioprint- ers alone is not sufficient for the development of large-scale in- Small Scale Additive Manufacturing dustrial organ biofabrication. An absolute prerequisite for suc- (millimeters and below) cessful bioprinting is the detailed knowledge of the biology of the respective tissue or organ. In any case, progress in tissue spheroid bio fabrication, the emergence of commercial bioprinters and the development of perfusion bioreactors suitable for organ “print- ing”, may open new perspectives for the design of fully integrated organ biofabrication. 8
Industry 4.0
Definition
The rapid development of microelectronics has meant that tech-
nical systems increasingly possess high-performance sensor and Data Management and Security
actuator technology: this enables process data to be detected
and can also directly influence the processes themselves. Re-
al-time availability of all relevant information via networking of Human Machine Interface
all entities involved in value creation and the ability to use data
to define an optimum value creation stream at any time are
viewed as the next steps of industrial (r)evolution. Correspond- Judicial Aspects
ing national development programmes have been established
under the titles ‘Industry 4.0” (Germany), ‘Industry 2025” (Swit-
zerland), ‘Initiative Smart Industry” (the Netherlands), and the Networks
‘Industrial Internet Consortium IIC” (USA).
Cyber-physical systems (CPS) are viewed as the building blocks Process Automation and Control
of this technology. These are characterised by the fact that they
link real (physical) objects and processes with high-performance
embedded ‘minicomputers” which record the process status and Process Development and Virtual Modelling
can pass it on to higher-level cyber systems at any time via in-
formation networks. This comprehensive linking of systems is
based on the Internet of Things (IoT). In some areas it requires Quality Control
the development of new, high-performance Industry 4.0 refer-
ence architecture models (RAMI 4.0). Within the resulting smart
factories intelligent products are clearly identifiable, can be lo- Sensors and Actuators
cated at any time and have a record of their history, current
status and any alternative routes to their target status. This will
also result in changes to production logic. Social and environmental impact
Implementing Industry 4.0 platforms will require developments
as regards reference architecture standardisation, command of Software
complex systems, comprehensive broadband infrastructure, data
security guarantees, legal frameworks, innovative work organi-
sation, and training or further training for employees.
9
Additive Fertigung Industrie 4.0
Overview ETH, Universities and Research Centers
CSEM MEMS
CSEM Surface Engineering
CSEM Characterisation/Reliability
CSEM Automation
CSEM Ultra-low-power int.
Empa 201 LHPC
Empa 204 LAMP
Empa 206 LMMN
Empa 302 LAWM
EPFL IMX
ETH Zürich
ETHZ D ARCH Gramazio-Kohler
ETHZ D CHAB IPW
ETHZ D HEST IfB
ETHZ D INFK AIT
ETHZ D INFK IGL
ETHZ D MATL Complex Materials
ETHZ D MATL LNM
ETHZ D MAVT ADRL
ETHZ D MAVT IMES
ETHZ D MAVT EDAC
ETHZ D MAVT PDZ
ETHZ D MAVT IWF
ETHZ D MAVT LTNT
Innocampus Adv. Man.
Innocampus Industrie 4.0
inspire
inspire icams
inspire ipdz
Unibas PW
Unibe AME
Unibe ARTORG
Unibe ISTB
Unine CHYN
Unine IIUN
Unine LAMUN
Unine MAPS
Unine [PI]2
UZH IUS ITSL
UZH OEC IFI IMRG
UZH Kispi
To each institute a maximum of six overarching technical terms – reflecting the activities and expertise of the institute and
visualized as icons – were assigned from the two subject areas “Additive Manufacturing” and “Industry 4.0”. This information is
displayed in the table. In the left half of the table the institutes of the ETHs and universities can be found (in alphabetical order);
in the right half the institutes of the universities of applied science, also in alphabetical order. The highlighted symbols describe
the activities and competencies of the institutes. An explanation of the symbols can be found in the flaps and on pages 8 and
9. The order of the institutes corresponds to that of the text contributions (starting on page 13).
10Additive Manufacturing Industry 4.0
Overview Universities of Applied Science
BHF ALPS
BHF HuCE
BHF I3S
BHF I4MI
BHF ICTM
BHF IDT
BHF iREX
BFH RISIS
FHNW KZ4.0
FHNW I4DS
FHNW IA
FHNW IBE
FHNW ICB
FHNW IMA
FHNW IME
FHNW IMVS
FHNW IPPE
FHNW ZEF
HE-Arc Ing
HES-SO IICT
HES-SO inSTI
HES-SO iPrint
HES-SO ISI
HES-SO iSIS
HES-SO SeSi
HSLU CCMS
HSLU Dep Inf
HSR ILT
HSR IPEK
HSR IWK
NTB AM
NTB I4.0
SUPSI ICIMSI
SUPSI IDSIA
SUPSI IMC
SUPSI ISAAC
SUPSI ISEA
SUPSI ISIN
SUPSI ISTePS
SUPSI LCV
ZHAW IAMP
ZHAW IAS
ZHAW ICBT
ZHAW ICP
ZHAW IDP
ZHAW ILGI
ZHAW IMES
ZHAW IMPE
ZHAW IMS
ZHAW INE
ZHAW InES
ZHAW InIT
ZHAW IUNR
ZHAW ZAV
ZHAW ZPP
ZHAW ZSN
11Additive Manufacturing 12
100 101 102
CSEM CSEM Empa
Surface Engineering Characterisation and Reliability Laboratory for High Performance
Ceramics (201 – LHPC)
Our nanosurface engineering activity de- In cooperation with the HE-Arc CSEM has
velops solutions at the interface between developed a Center of Excellent in Charac- The core activities of the Laboratory for
micro-, nano-, and biotechnologies. terisation of microstructures and materi- High Performance Ceramics are the syn-
als. Strong cooperations are underway or thesis, processing, characterization and
Printable electronics is a set of emerging in preparation with major partners as EP- in-depth analyses of advanced ceramic
technologies that includes new materials, FL-IMT, EMPA, PSI too. The objective is to materials and composites with tailored
process equipment and devices. The ap- close the circle of design, fabrication and structural and functional properties. One
proach is based on additive manufactur- testing for the task of structural mechani- key focus area are nanomaterials and ce-
ing and makes large area, lightweight, cal, electrical and chemical behaviour un- ramics for energy and environment tech-
flexible, distributed electronics a reality. der various types of constraints. nologies with a special focus on fuel cell
Using equipment evolved from the world and filtration technologies, photocatalyt-
of traditional printing, printed electron- CSEM is a national innovation accelerator – ic degradation of pollutants and photo-
ics offers the potential for the large-scale a catalyst for the transfer of technologies electric generation of electricity and so-
implementation of devices. and know-how from fundamental research lar fuels, such as hydrogen.
to industry. This role involves four principal
Thin-film solar cells are developed and tasks: we develop and maintain technology In cooperation with partners from Empa,
combined with silicon-based cells to cre- platforms, we integrate and combine tech- Universities and Industry, we conduct tar-
ate integrated units that may eventually nologies into workable systems, we mature geted feasibility studies in our specialized
feature a conversion efficiency of more those technologies until using them will processing laboratories to find novel solu-
than 30 percent. add value to our industrial clients, then we tions to problems in the field of structural
support the process of transferring those and functional ceramic materials.
CSEM is a catalyst for the transfer of tech- technologies to industry.
nologies and know-how from fundamental In Additive Manufacturing, we use Selec-
research to industry. This role involves Our broad field of expertise – microengi- tive Laser Melting (SLM) and Selective
four principal tasks: we develop and neering – is a fundamental ingredient of Laser Sintering (SLS) as well as Fused
maintain technology platforms, we inte- Swiss. Deposition Modelling (FDM) of ceramic
grate and combine technologies into www.csem.ch/memsdesign materials and functional composite mate-
workable systems, we mature those tech- www.csem.ch rials. Furthermore, we use reactive tape
nologies until using them will add value casting technologies in combination with
to our industrial clients, then we support Laminated Object Manufacturing (LOM) to
the process of transferring those technol- shape three-dimensional gradient struc-
ogies to industry. tures.
www.empa.ch/web/empa/high-performance-
Our broad field of expertise – microengi- ceramics
neering – is a fundamental ingredient of
Swiss industry.
www.csem.ch/nanosurface
www.csem.ch/thinfilms-PV
13103 104 105
Empa Empa Empa
Laboratory for Advanced Materials Laboratory for Mechanics of Materials Laboratory for Applied Wood Materials
Processing (204 – LAMP) and Nanostructures (206 – LMMN) (302 – LAWM)
Research in the LAMP focuses on the fol- The Lab for Mechanics of Materials and Na- The research groups develop functional
lowing topics: nostructures focusses on the synthesis of wood and cellulose based materials for a
• Production of nanoparticulate powder by three-dimensionally architectured metals broad range of applications. They are in-
RF inductively coupled plasma atomiza- and ceramics through combination of a) terested in the 3D printing of lignocellu-
tion and condensation, spheroidization galvanoforming with 3D microprinting and losic materials. A first study has been car-
and modification of micron-sized pow- UV-lithography, b) ALD on templated 3D ried out and reports on the formulation
ders, transport of flowable and unflowa- substrates, and c) 3D focused electron/ion and application of viscoelastic cellulose
ble powders. Characterization of powders. beam direct-write CVD & etching. nanocrystals inks that enable the fabrica-
tion of three-dimensional objects by di-
• Thermodynamics of alloys and compos- Current research projects are related to rect ink writing. The work has been car-
ites for laser melting deposition, model- the purity and crystallinity of electro- ried out in collaboration with Prof.
ling of laser additive manufacturing. plated alloys, the co-deposition of noble Jennifer Lewis, Harvard University and
Real-time in-situ observation of melting and non-noble elements by focused elec- Prof. André Studart, ETHZ.
and solidification by X-ray and neutron tron beams, the mechanical stability of
tomography. al-loys, the strength and ductility of 3D Recently, the lab acquired an own 3D Bio-
galvanoformed parts as well as the inves- plotter located in Empa’s Coating Compe-
• In-situ real time optical and acoustic tigation of deposition mechanisms in 3D tence Center. Here, the goal is to develop
signal detection, interpretation and nanoprinting. and investigate hierarchically-structured
process control of long pulsed laser melt cellulose-based composites whose micro-
processes. Real time spectroscopic in- The activities in additive manufacturing structures resemble those of biological
spection of plasma and laser processes. are performed by two synthesis research materials exhibiting superior mechanical
High speed and spectroscopic laser groups which are supported by two analy- performance. The developed synthetic
welding plume characterization. sis research groups with a large number of composites will allow us to gain a deeper
cutting-edge analytical techniques rang- understanding over the structure-property
• Direct metal deposition of silicon from ing from micromechanical testing, electron relationships at multiple length scales in
veryfine powder (< 5 micrometers diame- microscopy, surface and thin film analysis, hierarchical architectures, thus providing
ter). to optical spectroscopy. The close vicinity guidelines for the fabrication of stronger,
of synthesis and analysis infrastructure en- tougher and lighter composite materials.
• Focused Electron Beam Induced Process- ables a rapid material and process develop- www.empa.ch/web/empa/applied-wood-
ing (FEBIP) precursor selection for etch- ment as well as developing tailored materi- materials
ing and deposition processes. al analysis techniques.
www.empa.ch/web/empa/advanced-materials- www.empa.ch/web/empa/mechanics-of-
processing materials-nanostructures
1405 79
EPFL ETH Zürich ETH Zürich
School of Engineering STI, Institute of ETH Additive Manufacturing Community Department of Architecture,
Materials IMX Gramazio-Kohler Research
Additive manufacturing (AM) starts to
The IMX hosts 16 laboratories with exper- fundamentally change research, develop- The Gramazio and Kohler research groups
tise covering a wide spectrum of materials ment and production processes, providing engage in the process of producing digi-
classes and analysis techniques. Research innovative solutions to various manufac- tally-controlled, bespoke “leaking form-
at the IMX has broad relevance to manu- turing challenges. Many research groups work” elements for non-standard concrete
facturing, with potential applications at ETH Zurich apply AM technologies and structures.
ranging from bio- and micro-electronic de- develop AM platforms for different appli-
vices to automotive, energy, aerospace and cations. Materials:
even biomedical or recreational applica- • steel
tions. The AM community connects all research • concrete
groups at ETH involved in 3D printing. The gramaziokohler.arch.ethz.ch/web/e/
Research into fundamentals of materials goal is to interlink research projects, to forschung/index.html
processing constitutes the core of our exchange experience and know-how be-
activities in advanced manufacturing. Ac- tween different users and to foster re-
tivities related to shaping, forming, search and innovation. The community
joining, casting or net-shape additive serves as a discussion platform about
manufacturing of 1D to 3 D shapes are novel developments in infrastructure and
based on research exploring surface phe- coordinates the equipment accessible to
nomena, microstructural development, both internal and external partners. For
transient transport phenomena, rheology additional information on the AM Interest
of solids and fluids, mechanics at several Group please consult one of the links be-
scales, thermodynamics, kinetics, and at- low.
omistic simulation. Several research ac-
tivities relate to lean manufacturing in- A complete list of AM activities at the
cluding sustainable materials processing ETH Zurich can be found at:
and overall optimization of the economic www.ethz.ch/de/wirtschaft-gesellschaft/
and environmental impact of products. In industry-relations.html
parallel, research areas contributing to
the development of new materials have
relevance to manufacturing, as such ma-
terials enables new methods of produc-
tion as well as new products.
imx.epfl.ch
1580 81 82
ETH Zürich ETH Zürich ETH Zürich
Department of Chemistry and Applied Department of Health Sciences and Computer Science Department, Advanced
Biosciences, Institute of Pharmaceutical Technology, Institute for Biomechanics Interactive Technologies Lab AIT
Sciences IPW IfB
The Advanced Interactive Technologies
The Institute of Pharmaceutical Sciences The Institute for Biomeachnics is active Lab engages in the digital fabrication of
at the Department of Chemistry and Ap- in the following fields: input devices.
plied Biosciences performs research in the • bioprinting
field of drug-loaded medical devices. • development of cell friendly bioinks for Materials:
medical applications • polymers
Materials: • biomimetic structures for musculoskel- • conductive materials
• biodegradable polymers etal and cardiovascular regeneration • flexible materials
• water soluble polymers • bioprinting of cellular and acelluar bio- ait.inf.ethz.ch
www.chab.ethz.ch/forschung/institute-und- logical tissues on the micro and nano
laboratorien/IPW.html/ level
• cross-linking chemistry
Materials:
• biopolymers
• titanium
• magnesium
• polymers
• gels
• ceramics
www.biomech.ethz.ch
1683 84 85
ETH Zürich ETH Zürich ETH Zürich
Computer Science Department, Department of Materials, Complex Department of Materials, Laboratory
Interactive Geometry Lab IGL Materials for Nanometallurgy LNM
The Interactive Geometry Lab performs Research in the group focuses on the de- The focus of research is the development
research in the following fields: velopment of advanced additive manufac- of novel materials and processes for addi-
• interactive 3D-modelling turing approaches for the fabrication of tive manufacturing across length scales.
• simulation of fabricable objects bio-inspired materials.
Materials:
Materials: Materials: • metals
• polymers • polymers • polymers
• concrete • polymer-based composites • fiber composites
• metal • ceramics www.met.mat.ethz.ch/
• wood www.complex.mat.ethz.ch/
• silicone
igl.ethz.ch/
1786 87 88
ETH Zürich ETH Zürich ETH Zürich
Department of Mechanical and Process Department of Mechanical and Process Department of Mechanical and Process
Engineering, Agile and Dexterous Engineering, Institute for Mechanical Engineering, Institute of Design,
Robotics Lab ADRL Systems, Chair of Mechanics and Materials and Fabrication, Engineering
Materials IMES Design and Computing Laboratory EDAC
Research at the Agile and Dexterous Ro-
botics lab focuses on the following to- The lab is primarily interested in the de- The Engineering Design and Computing
pics: velopment of programmable matter. This Laboratory is active in a variety of topics
• development of “in situ fabricators” includes research on structured materials in the field of additive manufacturing:
• autonomous robots for assembly tasks with tailored mechanical properties. • design for additive manufacturing
and digital fabrication in unstructured • computational design methods for addi-
environments Materials: tive manufacturing
• learning algorithms for robots • polymers • lattice structures
• polymer composites • structural topology optimization
The group does not focus on specific mate- www.mechmat.ethz.ch/index.html • shape optimization
rials. Current projects make use of brick, • material optimization
steel and concrete. • multi-material design for additive
www.adrl.ethz.ch/doku.php manufacturing
• multi-material additive manufacturing
printing
Materials:
• polymers
• Connex 500
• Fortus 400mc polycarbonate
• Uprint SE Plus ABS
www.edac.ethz.ch
1889 90 91
ETH Zürich ETH Zürich ETH Zürich
Department of Mechanical and Process Department of Mechanical and Process Department of Mechanical and
Engineering, Institute of Design, Engineering, Institute of Machine Tools Process Engineering, Laboratory
Materials and Fabrication, Product and Manufacturing IWF of Thermodynamics in Emerging
Development Group Zurich PDZ Technologies LTNT
The Institute of Machine Tools and Manu-
The Product Development Group Zurich is facturing is active in a variety of fields The Laboratory of Thermodynamics in
a leading center for system-oriented related to additive manufacturing. Its Emerging Technologies performs research
product development and innovation. The core competences are: in micro- and nanofabrication. Work fo-
aim is to contribute to the innovative ca- • manufacturing process technology for cuses on the development and under-
pability and competitiveness of the me- SLM, SLS and DMD (with and without standing of new materials and processes
chanical engineering industry. The group laser) with advanced properties and functional-
engages in a variety of activities around • process chains for additive manufacturing ities.
additive manufacturing: • development of machines for additive
• general design guidelines manufacturing and machine conceptu- Materials:
• supply chain architecture alization • metals
• identification of AM-applications • development of materials and process • dielectrics
• design guidelines for specific applica- windows • semiconductors
tions • quality management for AM www.ltnt.ethz.ch
• combinations of additive and conven- • process simulation and prediction of part
tional manufacturing technologies properties
• criteria for manufacturing strategies
Materials:
Materials: • metals
• steel • polymers
• polymers • ceramic
• composite materials www.iwf.mavt.ethz.ch/index_EN
www.pdz.ethz.ch
19106 92 92
Innocampus Inspire Inspire
Advanced Manufacturing Technologies Schweizer Kompetenzzentrum für den Innovation Center for Additive Manu-
AMT Technologietransfer zur MEM-Industrie facturing, Switzerland icams
Der Forschungsschwerpunkt AMT beinhal- Die inspire AG ist als strategischer Partner Das inspire Institut icams beschäftigt
tet die neuen generativen Fertigungsver- der ETH Zürich das führende Schweizer sich seit über 20 Jahren mit Forschungs-
fahren (Generative Fertigung / Additive Kompetenzzentrum für den Technologie- fragen rund um das Selective Laser Sinte-
Manufacturing: AM). Der Schwerpunkt transfer zur MEM-Industrie. Sie betreibt ring und das Selective Laser Melting. Im
liegt dabei auf metallischen Werkstoffen Forschung für die Industrie, entwickelt Fokus steht dabei die Weiterentwicklung
und deren Verfahren. Dabei sind das Pul- modernste Technologien, Methoden und der Verfahren und Materialien für Anwen-
verbett- sowie das Laser-Cladding-Verfah- Prozesse und löst Probleme auf allen Wis- dungen im industriellen Kontext.
ren unsere Vertiefungsrichtungen. Diese sensgebieten der Produktinnovation und
werden vereinzelt schon jetzt für die Seri- der Produktionstechnik. Die übergeordnete Zielsetzung ist,
enproduktion von Hightech-Bauteilen Knowhow für geeignete Qualitätssiche-
eingesetzt, z.B. in der Luft- und Raum- inspire bringt die besten Partner der In- rungssysteme aufzubauen und die Syste-
fahrt, Energie-, Automobil-, Medizin- und dustrie und der Hoch- und Fachhochschu- me so weiter zu entwickeln, dass die her-
Dentaltechnik sowie im Maschinen- und len für gemeinsame Projekte zusammen gestellten Bauteile auch qualifiziert
Anlagenbau. und verfügt über die Köpfe, das Wissen werden können. Der Themenkomplex um-
und die Erfahrung, um Ideen erfolgreich fasst deshalb die gesamte Prozesskette
Unsere Mission ist es, die generative Fer- in Innovationen umzusetzen. Wo Neuland ausgehend vom Pulvermaterial, deren
tigung in der Schweiz im internationalen beschritten werden soll, punktuell Kom- chemische Zusammensetzung und deren
Industrie- und Forschungswettbewerb petenzen in der Technik oder in der Pro- Prozessierung in einer additiven Ferti-
durch fokussierte Innovation zu stärken. jektabwicklung fehlen und wo unvorein- gungsumgebung. Dies umfasst auch die
Dabei konzentriert sich die Innocampus genommene Urteilskraft gefragt ist, kann Implementierung geeigneter Monito-
AG in Kooperation mit Partnern auf wich- inspire neue Lösungen liefern. ring-Systeme, welche Auskunft über die
tige spezifische Themen: Die Effizienz- Integrität des aufgebauten Materials ge-
steigerung, eine höhere Präzision sowie inspire ist ein durch den Bund gefördertes ben können. Da die Materialeigenschaften
die Prozesssicherheit gehören zu unseren Technologiekompetenzzentrum, entstan- durch den Prozess bestimmt und auch ak-
Kernthemen. Daneben sind Software, Si- den durch eine gemeinsame Initiative von tiv beeinflusst werden können, stellt die
cherheit und Konzepte für zukünftige Fer- Swissmem und der Eidgenössischen Tech- Charakterisierung mechanischer Eigen-
tigungsverfahren ebenfalls auf unserem nischen Hochschule Zürich (ETH). schaften und der Mikrostruktur der aufge-
Forschungsradar. Design- und Topolo- www.inspire.ethz.ch bauten Materialien eine Kernaktivität dar.
gie-Optimierung sowie MI- und CFD-Simu-
lation können bei uns vor dem Aufbau mit Es werden auch Fragen hinsichtlich zu-
der SLM Anlage durchgeführt werden, die künftiger Anlagenkonzepte bearbeitet.
Q-Kontrolle erfolgt bei Partnern.
www.innocampus.ch/advanced-manufacturing- Materialien:
technologies • Metalle
• Polymere
www.inspire.ethz.ch/divisions/inspire_icams/
index_EN
2093 10 13
Inspire Universität Basel Universität Bern
Produktentwicklung und Konstruktion Philosophisch-Naturwissenschaftliche AME GmbH
ipdz Fakultät, Pharmazeutische Wissen-
schaften The AME GmbH strives to apply the unique
Additiv gefertigte Bauteile halten Einzug qualities of additive manufacturing to the
in Industrie- und Endkundenprodukte. Die In cooperation with the Biographics Lab- development of optical elements for Tera-
Produktentwicklung hat dabei die Aufga- oratory 3R, we develop concepts and hertz radiation such as waveguides, lenses,
be, durch die Vorteile von additiven Ferti- tools for in silico drug discovery. The Vir- mirrors as well as more complex integrated
gungsverfahren und die Kombination mit tualDesignLab allows for the automated optical systems. Terahertz radiation lies
anderen Verfahren einen zusätzlichen simulation and quantification of the bind- between infrared and microwave radiation
Nutzen zu schaffen. ing of small-molecule drug candidates to on the spectrum of light and promises
their suspected protein targets. It in- interesting applications in medicine,
Die Gestaltungsfreiheit und Losgrös- cludes both thermodynamic and kinetic non-destructive testing and security.
senunabhängigkeit der Verfahren bietet aspects and considers the physico-chemi- www.ame-optics.ch
die Möglichkeit, Bauteile an der optimalen cal properties relevant for adsorption and
Erfüllung der Funktion und den individuel- distribution of the drug in the systemic
len Kundenbedürfnissen auszurichten. Bei circulation.
dem Wechsel von einem fertigungs- zu
einem funktionsgerechten Design unter- The VirtualToxLab is an in silico tool for
stützt die inspire ipdz Firmen von der predicting the toxic potential (endocrine
Ideenfindung bis zum ersten AM Serien- and metabolic disruption, some aspects
bauteil und bei der dauerhaften Einbin- of carcinogenicity and cardiotoxicity) of
dung von additiver Fertigung in den Ent- drugs, chemicals and natural products.
wicklungsprozess. The toxic potential is derived from the
binding affinities (computed by means of
Das Forschungsgebiet des inspire ipdz ist 4D Boltzmann scoring) towards a series of
die Integration der additiven Fertigung in 16 proteins known or suspected to trigger
den Produktentwicklungsprozess: adverse effects.
• Welches Wissen braucht ein Konstrukteur
für die Identifizierung von geeigneten The technology is currently used by some
AM-Bauteilen und welche Hilfestellungen 80 institutions worldwide (universities,
braucht er für die Detailkonstruktion? regulatory bodies, pharmaceutical, cos-
• Wie können additive Fertigungsverfah- metic and food industry) and the results
ren mit anderen Verfahren sinnvoll kom- for over 2,500 tested compounds are
biniert werden? posted in a database.
• Wie kann die additive Fertigung wirt- www.biograf.ch/images/VTLUserMap.png
schaftlich in den Produktionsprozess
eingebunden werden?
www.inspire.ethz.ch/divisions/inspire_pdz/
index_EN
2112 11 16
Universität Bern Universität Bern Université de Neuchâtel
Medizinische Fakultät, Center for Bio- Medizinische Fakultät, Institut für Faculté des sciences, Centre for
medical Engineering Research ARTORG Chirurgische Technologien und Hydrogeology and Geothermics CHYN
Biomechanik ISTB
Am ARTORG werden neue Anwendungen Underground resources (groundwater, heat,
von additiven Fertigungsverfahren in der Im ISTB gibt es zum Thema additive Ferti- oil, or minerals) are difficult to access.
biomedizinischen Technik und den Life gung folgende Aktivitäten: The estimation of reserves and the design
Sciences vorangetrieben. Dazu steht ein • Allgemein: An unserem Institut werden in of optimal exploitation strategies rely
eigenes Medical Rapid Prototyping Lab zwei Forschungsgruppen (Zheng/Reyes) on incomplete and indirect underground
mit verschiedenen Drucksystemen zur neuartige, weitgehend automatische Ver- structural data (among others drill holes,
Erstellung von Druckmodellen aus medizi- fahren entwickelt, um aus medizinischen conceptual geological models) and their
nischen Bilddaten zur Verfügung. Im Be- Bilddaten (MR/CT) Modelle für den ad- numerical virtual representations. The
reich der chirurgischen Forschung werden ditiven Fertigungsprozess zu kreieren. CHYN is at the forefront of the research in
einerseits bildbasierte, automatische Ver- • Speziell: Wir werden zeitnah ein Projekt this field. It develops CAD methods to
fahren entwickelt, mit denen patientenin- in Kooperation mit zwei schweizerischen convert field data into 3D volumetric nu-
dividuell gelenkprothetische und dentale Partnern starten, mit dem Ziel, patien- merical representations of the under-
Implantate additiv gefertigt werden. An- tenspezifische, biodegradierbare Or- ground from the reservoir (kilometres) to
dererseits werden chirurgische Operationen bital-Implantate zu drucken. Unser the sample (micrometres) scale. Such al-
anhand virtueller und additiv hergestellter Beitrag wird dabei zum einen die o.g. gorithms include interactive 3D modelling
Modelle geplant und durchgeführt. Im Be- Modellbildung sein, zum anderen wer- techniques and optimization tools to
reich der medizinischen Robotik wird unter- den wir uns um die biomechanische design the best possible exploitation
sucht, wie additiv hergestellte, ultraleichte “Evaluation” der Implantate kümmern. method for each case (e.g. optimal pump-
Strukturen realisiert werden können, die www.istb.unibe.ch/about_us/vision/ ing well placement). Big Data analysis is
mit konventionellen Verfahren gar nicht index_eng.html used to analyse large data sets such as
herstellbar wären. Für Anwendungen in hyperspectral images of geological out-
der personalisierten Medizin werden ausser- crops. Such 3D numerical models could be
dem mittels Bioprinting sogenannte Or- printed in 3D either for communication
gans-on-Chip zur Reproduktion der zellu- purposes or to conduct physical experi-
lären Mikroumgebung entwickelt. Zudem ments. The algorithms behind these 3D
werden die Möglichkeiten und Grenzen der models can be used for a variety of prob-
additiven Fertigung patientenspezifischer lems linked to additive manufacturing
biodegradierbarer Implantate untersucht. in which the creation of 3D numerical
www.artorg.unibe.ch models is an issue.
www.unine.ch/chyn
2215 17 19
Université de Neuchâtel Université de Neuchâtel Université de Neuchâtel
Faculté des sciences, Computer Science Faculté des sciences, Institute of Faculté des lettres et sciences humaines,
Department IIUN Biology, Laboratory of Microbiology Maison d’analyse des processus sociaux
LAMUN MAPS
Members of the Computer Science Depart-
ment are particularly active in the fields Microorganisms are nature‘s most per- The MAPS Center for research and teaching
of secure and dependable systems, cloud formant chemists and as such are the ori- brings together anthropologists, econo-
computing, distributed data management, gin and end-point of exploiting raw mate- mists, geographers, migration scholars,
sensor networks, and the Internet of Things rials. The Laboratory of Microbiology political scientists, psychologists and so-
(IoT). They have notably been involved in develops innovative biotechnological ap- ciologists working on the issue of “social
half a dozen European projects related to proaches to harness the power of natural- innovation”: how innovation develops out
these research domains, which are instru- ly-occurring microbes for metal exploita- of social processes and contributes, in
mental for a vision of “Industry 4.0” where tion and recycling. This can be applied turn, to societal change. The MAPS’s social
computer systems will automate or control both at the stages of mining, as well as in innovation agenda includes both funda-
a large part of manufacturing activities and the valorization of waste material. The mental and applied research in areas such
have to face stringent security and depend- last aspect could be a cornerstone contri- as innovation policy and regional develop-
ability constraints in distributed settings. bution to the realization of a sustainable ment, urban planning and smart cities,
“Circular Economy”. technology transfer, citizen sciences, inte-
Most research activities in this domain are gration and mobility studies, participative
conducted in the context of the recently The Laboratory also studies biological- methodologies in institutional manage-
established Centre of Competence in Com- ly-controlled mineral formation, a process ment, and educational policy for the pro-
plex Systems and Big Data, jointly run with that contributes to the generation of motion of lifelong learning.
the Institute of Information Management. novel materials or material optimization.
www.unine.ch/iiun The approach used is based on the under- The MAPS‘s competences can contribute to
www.unine.ch/coc-big-data standing of the ecology of bacteria and the development of the Swiss “Additive
fungi in natural environments, and the Manufacturing” and “Industry 4.0” land-
transfer of this knowledge into manmade scape in the following areas: new forms of
ecosystems. LAMUN‘s expertise in met- property rights and management (e.g.
al-mineral-microbe interactions should “Creative Commons” and “Open Innova-
contribute to the challenges of obtaining tion”); changing relations to technology in
and recycling raw materials as well as to sharing economies; emerging practices to
adding value to such materials. promote ecological and social causes
www.unine.ch/lamun (crowdsourcing, responsible innovation);
and new forms of creativity facilitated by
digital environments (e.g. the “makers”
movement).
www.unine.ch/maps
2318 107 22
Université de Neuchâtel Universitäts-Kinderspital Zürich Berner Fachhochschule
Faculté de droit, Centre for Intellectual Department of Pediatric Surgery, Departement Technik und Informatik,
Property and Innovation [PI]2 Tissue Biology Research Unit (TBRU) Institute for Applied Laser, Photonics
and Surface Technologies ALPS
The Centre for Intellectual Property and The TBRU has developed a new generation
Innovation [PI]2 considers the legal as- of dermo-epidermal skin substitutes, two Das ALPS entwickelt Verfahren und Tech-
pects of innovation from 3 angles, in a of which are presently applied in clinical niken für die materialsparende Fertigung
holistic and multidisciplinary approach: trials, and one of which has received the von Werkstoffen und deren Analyse.
intellectual property (IP), commercial law, Orphan Drug Designation (ODD), both
and tax law. New approaches to IP owner- from the EMA and Swissmedic, to treat Kernkompetenzen:
ship and technology transfer will be nec- burn injuries. To make this skin more • Material-Mikrobearbeitung mit ultrakur-
essary as innovation and manufacturing widely available and to produce it in a zen Laserpulsen
are ever more collaborative and open. cost-effective manner, the TBRU has • Veränderung von Randschichten durch
With regard to “Open Innovation” and co-developed a device that is capable of Wärme- oder Laserbehandlung
“Creative Commons”, which will play a generating tissue-engineered skin in an • Fasertechnologie, d.h von der Faserher-
major role in the development of “Addi- automated, additive and standardized stellung zur Materialbearbeitung
tive Manufacturing” and “Industry 4.0”, fashion. In a close collaboration with the • Auftragen von Dünnschichten mit PVD-
the focus is on developing teaching and Product Development Group of the ETH und CVD-Methoden
research activities related to the follow- (Prof. Mirco Meboldt) the TBRU is current- • Einsatz von Plasmatechnologien für die
ing central issues: ly developing an automatic line operation Oberflächenmodifikation
of its latest generation of pre-vascular- • Werkstoff- und Oberflächenanalyse
• Management of immaterial goods in par- ized and pigmented skin substitutes. • Herstellung von Komponenten mittels
ticular with regard to patents (including Selective Laser Melting
life sciences, bio- and medtech), copy- Competences of the TBRU
right, design law, and the rules of origin • Basic research in skin (cell) biology Forschungsgruppen
• Clarification of rules dealing with limita- • Generating complex personalized skin • Applied Fiber Technology: Erzeugung,
tions of right holders’ exclusive rights, • Additive production of human skin Verstärkung und Transport von kurzen
in particular relative to private use • GMP production of skin grafts und ultrakurzen Pulsen
• State-of-the-art licensing schemes based • Conducting clinical trials (on the sponsor • Laser Sur face Engineer ing: Laser-
on new business models for “Industry side) Mikro-Materialbearbeitung mit kurzen
4.0” and “Additive Manufacturing” www.skingineering.ch und ultrakurzen Laserpulsen
• New counterfeiting and piracy chal- • Materials Technology and Heat Treat-
lenges ment: Wärmebehandlung zur Optimierung
• Development of regulations at interna- von Eigenschaften und Standzeiten bei
tional level, including an international der Herstellung von Bauteilen
private law approach. • Plasma Surface Engineering: Einsatz von
www.unine.ch/pi2 Plasmatechnologien zum Modifizieren von
www.unine.ch/coc-ip-innovation Oberflächen und zur Herstellung dünner
Schichten
• Thin Films and Surfaces: Herstellung von
dünnen Schichten und Mikrosystemen
alps.bfh.ch
2427 39
Berner Fachhochschule Fachhochschule Nordwestschweiz Fachhochschule Nordwestschweiz
Departement Technik und Informatik, Hochschule für Technik, Kompetenz- Hochschule für Life Sciences, Institute
Institut für Drucktechnologie IDT zentrum 4.0 for Chemistry and Bioanalytics ICB
Das IDT entwickelt und optimiert zusam- Industrie 4.0 ist ein interdisziplinäres The Institute for Chemistry and Bioana-
men mit Industriepartnern Drucksysteme Thema, das verschiedenste technische lytics researches and teaches in the fields
und –verfahren für den funktionalen und Disziplinen fordert. Die Hochschule für of biochemistry, bio-analytics, nanotech-
graphischen Druck sowie Dosiertechnolo- Technik FHNW setzt darum auf eine enge nology, organic synthesis and process en-
gien für Anwendungen in Biotechnologie, Zusammenarbeit ihrer Institute. Das ge- gineering. With their in-depth knowledge
Food und Verfahrenstechnik. meinsame “Kompetenzzentrum Industrie in biomaterials and biology as well as in
4.0” unterstützt Unternehmen aktiv bei cell-breeding and bacteria-testing, the ICB
Kernkompetenzen der Entwicklung und Umsetzung von In- could bring additive manufacturing struc-
• Fluidmanagement und Mikrodosierung dustrie-4.0-Konzepten. tures into pre-clinical biological conditions
• Beschichten und Funktionalisieren von and study their impact on biology.
Oberflächen sowie Drucken von Dünn- Kompetenzen
schichten (inkl. Pre-/Postprocessing) • Cyber-physische-Systeme This widens the portfolio of research ap-
• Drucken und Härten von UV-Photopoly- • Internet of Things IoT plications for additive manufacturing dra-
meren • Big Data matically and leads to knowledge in cell
• Generative/additive Verfahren (3D Druck • 3D-Printing and bacteria processing. Together with
von Food, Polymere, Keramik und Cellu- • Sensor-Aktor-Systeme the IMA, the ICB runs a 3D Bio-Plotter
lose) • Planungs- und Steuerungssysteme Lab for processing biomaterials as well as
• Digitaler Grossflächendruck • Ressourceneffizienz for cells and bacteria.
• Entwicklung von Mikroventilen für das fhnw.ch/technik/industrie40
Drucken und hochgenaue Dosieren von
hochviskosen Fluiden
• Kombinierte elektromagnetische, mecha-
nische und fluidische Simulation (Mul-
tiphysics) von Ventilen und Drucksyste-
men
• Messsysteme im Bereich Sensorik
idt.bfh.ch
2538 31 40
Fachhochschule Nordwestschweiz Fachhochschule Nordwestschweiz HES-SO Haute école spécialisée de Suisse
Hochschule für Life Sciences, Institute Hochschule für Technik, Institute for occidentale
of Medical and Analytical Technologies Product and Production Engineering Haute Ecole Arc Ingénierie - HE-Arc
IMA IPPE Ingénierie
The Institute for Medical and Analytical The FHNW Institute for Product and Pro- La HE-Arc a 9 groupes directement liés à
Technologies has a long tradition and ex- duction Engineering performs research and l’industrie 4.0 et à l’additive manufacturing:
pertise in additive manufacturing (AM). development in the field of metallic Addi- • Procédés industriels - Développement et
IMA is a driving force for applied research tive Manufacturing with special focus on intégration de solutions cyber-physiques,
in AM for MedTech industries and clinics. industrial applications such as aeronautics compétences dans le micro-usinage, la mi-
The institute is well connected throughout and turbomachinery. It features a Selec- cro-injection et l’additive manufacturing.
Europe and was involved in several Europe- tive Laser Melting machine on which parts • Conception des moyens de production –
an and nationally funded projects. are 3D-printed in aluminum, steel, and Approche “micro-manufacturing” et dé-
nickel-based superalloys. veloppement de technologies économi-
IMA runs several Selective Laser Melting quement efficientes et durables.
machines for metals. Beside testing dif- Competences • Systèmes informatiques embarqués –
ferent metallic materials such as NiTi or • Additive Manufacturing Capteurs/actuateurs embarqués basse
magnesium, IMA is running a qualified AM • 3D Object Scanning consommation et intégration des tech-
process for the production of titanium im- • Rapid Prototyping nologies de communication.
plants. • Material Analysis • Analyse de données - Filtrage et prétrai-
fhnw.ch/technik/ippe tement des données industrielles remon-
In terms of ceramics, IMA is doing research tées des capteurs et développement d’al-
with bone replacing materials like Hy- gorithmes d’analyse prédictive.
droxyapatite and Tricalcium-Phosphate. • Technologies d‘interaction – Inter-
connexion de l’usine basée sur des archi-
Furthermore, IMA operates different poly- tectures IoT sécurisées et supervision de
mer machines, either for UV curable acrylic la production (web et mobile).
multi-materials or as extrusion plotters for • Mécanique numérique – La “Computa-
ABS, PLA, PCLA or laser sintering machines tional mechanics” assure une consom-
for PA or TPU. mation réduite des ressources, tout en
maintenant une fabrication précise.
Beside this unique AM and quality exper- • Métrologie et vision industrielle - Déve-
tise, IMA has established complementary loppement de solutions d’inspection
knowhow towards industry 4.0. We are de- intelligentes et automatisées (autodia-
veloping novel AM processes and software gnostic du procédé de fabrication).
solutions to shift and distribute design • Imagerie – Réalité augmentée (mainte-
and manufacturing skills to end-users. This nance préventive des machines ou ate-
allows different industries to develop new liers) et réalité virtuelle (conception de
business models and new service designs pièces complexes).
along with AM and digital manufacturing. • Conception de produits centrée utilisa-
teurs – Mise en place de processus itéra-
tifs pour développer des technologies.
www.he-arc.ch/ingenierie/competences
2644 41 45
HES-SO Haute école spécialisée de Suisse HES-SO Haute école spécialisée de Suisse HES-SO Haute école spécialisée de Suisse
occidentale occidentale occidentale
Haute école du paysage, d’ingénierie et Haute école d’ingénierie et d’architecture HES-SO Valais-Wallis – Haute Ecole
d’architecture de Genève - hepia, de Fribourg – HEIA-FR, Institut de d’Ingénierie – HEI, Institut Systèmes
Institut des Sciences et Technologies Printing iPrint Industriels ISI
Industrielles inSTI
Le point fort de l’institut iPrint est la tech- L’institut ISI possède un savoir-faire re-
inSTI est le partenaire industriel et de nologie jet d’encre. Partenaire de l’industrie, connu dans l’intégration de compétences
recherche de la HES-GE pour toutes les il contribue à l’innovation technologique, technologiques de pointe au sein d’un
problématiques de technologies indus- tant au niveau des matériaux et du dévelop- même produit. Ses partenaires sont des
trielles. Plus particulièrement, il se dis- pement instrumental que des procédés. entreprises actives dans l’électricité, la
tingue sur quatre axes stratégiques liés mécanique, la production industrielle, les
aux domaines suivants: Compétences: sciences de la vie ou la santé.
• Bio-ingénierie iPrint dispose d’une dizaine de plateformes
• Eco-ingénierie de recherche toutes conçues et développées Les compétences:
• Mécanique des fluides appliquée aux par l’institut. L’institut est ainsi à jour en • Impression 3D de pièces métalliques par
domaines de l’énergie matière de composants, de technologies et jet de liant sur des lits de poudre (mé-
• Matériaux et nanotechnologies et concep- est capable d’adapter rapidement sa configu- thode standard)
tion microtechniques ration aux besoins des différents projets et • Impression 3D de pièces métalliques par
études de faisabilités. Sa maîtrise de l’im- jet de solvant sur des lits de granulés
Les compétences: pression numérique permet à l’institut iPrint poudre-polymère (invention HES-SO Va-
Réalisation par impression 3D polymère de se concentrer sur le progrès des technolo- lais)
ou résine de maquettes pour le dévelop- gies en lien avec l’élargissement des champs • Conception et construction d’imprimantes
pement de systèmes mécaniques en lien d’application de l’impression jet d’encre. 3D en cours, basée sur des principes no-
avec les axes stratégiques de l’institut, • Construction des imprimantes vateurs
par exemple: système de maintien de • Compétences dans les domaines suivants: • Déliantage, frittage et infiltration à haute
composants optiques, modèle aérodyna- - Jet d’encre graphique et fonctionnel température pour consolider des pièces
mique pour soufflerie ou encore porte ou- - 3D Printing (basé à poudres), Multi Jet denses ou poreuses réalisées par “addi-
til pour machine d’électroérosion. Ces Modelling, Photopolymer Inkjet tive manufacturing”
compétences de fabrication sont complé- - Electronique imprimée • Impression 3D de pièces en matière plas-
tées par celles de scanning 3D et de re- - Impression en science de la vie (bio- tique par modélisation par dépôt de fil en
verse engineering (génération de modèle printing) fusion (méthode standard)
CAO à partir de nuages de points). • Multicouches fonctionnelles, Pièces • Demande de brevet européen
multi matériaux, Structures graduées EP05109045.4 (2005), 6 publications
Groupes de compétences: • Prétraitements et posttraitements des internationales, 6 présentations aux
Les professeurs Jacques Richard, Georg surfaces conférences en Suisse et à l’étranger
Wälder et Eric Rosset sont actifs sur les
thèmes de scanning 3D, reverse enginee- Groupes: Les groupes de compétences:
ring, (JR. Nombreux mandats), fabrica- • additive manufacturing • Groupe “Powder technology and advanced
tion additive et industrie 4.0. (GW: Projet • électronique imprimée materials”
CTI en cours avec GFMS). • bioprinting • Groupe “Mechanical Design”
hepia.hesge.ch/fr/rad-et-mandats/ iprint.heia-fr.ch, Fritz Bircher www.hevs.ch/fr/rad-instituts/
institut-insti/ (fritz.bircher@hefr.ch) institut-systemes-industriels/
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