Master NSE - Presentation

Transcription

MASTER GUIDE
Nanoscale Engineering
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Word of welcome
Welcome to Lyon and more specifically to the Master program «Nanoscale
Engineering».
This program is offered by a joint venture of top engineering institutions and
universities in Lyon: École Centrale de Lyon (ECL), Institut des Sciences
Appliquées de Lyon (INSA de lyon), Université Claude Bernard Lyon1 (UCBL1),
which are part of the “Université de Lyon”.
This Master was firstly supported by 3 key labs involved in nanotechnology and nanoscience:
the ”Institut des Nanotechnologies de Lyon“ INL, the lab “Matériaux Ingénierie et Sciences”
MATEIS, the “Laboratoire de physique de la matière condensée et des nanostructures” LPMCN
and by major companies in the Rhône-Alpes area. Today, other labs in Lyon are involved in the
Master in the field of physics, chemistry and biochemistry.
The Nanoscale Engineering program is resolutely multidisciplinary. It provides both a
theoretical base and a practical expertise in the fields of elaboration, characterization and
design of nanoscale structures and systems. It offers the scientific and technological knowledge
required to tackle a rewarding career in the innovative and growing field. This Master aims to
prepare students to continue towards a PhD level, but also to provide nanotechnology
industries with professionals able to adapt to the new challenges of this domain.
The Nanoscale Engineering program is resolutely international. All the courses are taught in
English. Courses and seminars are taught by professors or researchers, internationally
recognized for their research in the discipline taught. Students come from all over the world,
from different education systems, from different cultures.
The Nanoscale Engineering Master Guide contains all the information you need during your
Master. A description of the compulsory modules and elective modules is given, allowing you to
construct your personal program. Furthermore, this guide gives you information about the two
campuses, facilities and student life.
On behalf of the Nanoscale Engineering board, I wish you all the best in our Master program to
prepare a fruitful career in the Nano world.
Sincerely yours
Magali Phaner-Goutorbe
Professor at École Centrale de Lyon, Director of the Master Nanoscale Engineering
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TABLE OF CONTENTS
PEOPLE
Executive team
Teaching staff
Administrative staff
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ACADEMIC CONSORTIUM
ECL - École Centrale de Lyon
INSA - Institut National des Sciences Appliquées de Lyon
UCB Lyon1 - Université Claude Bernard Lyon 1
UDL – Université de Lyon
Organisation of the Master
Enrolment in the institutions of the consortium
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Scientific and Teaching Council
Education Committee
STRUCTURE OF THE MASTER’S PROGRAM
Curriculum of the Master Nanoscale Engineering
List of the courses
Seminars and workshop
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COURSES IN DETAIL
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RESEARCH LABORATORIES
INL – Lyon Institute of Nanotechnology
ILM – Institut Lumière Matière (LASIM, LPMCN, LPCM)
LPMCN – Labo. de Physique de la Matière Condensée et Nanostructures
MATEIS - Materials: Engineering and Science
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APPENDICES
Map of the “Domaine scientifique de la DOUA”
Map of INSA de Lyon campus
Map of UCB Lyon 1 campus
Map of ECL campus
Map of Lyon’s subway
Master’s communication
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PEOPLE
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Executive team
Pr. Dr. Magali PHANER GOUTORBE
Dean of International Affairs at ECL
Group Chemistry and Nano biotechnologies
Department Biotechnologies / Health
ECL - Nanotechnology Institute of Lyon (INL)
ECL - Building F7, 3rd floor
36 avenue Guy de Collongue - 69134 ECULLY
Tel : (33).04 72 18 62 32 - [email protected]
Research activities: Atomic Force Microscopy for organic and biological materials analysis in air
and liquids: High resolution imaging- force measurements-functionalized tips- inter/intra
molecular interactions - interfaces physical- chemical interfaces.
Pr. PHANER GOUTORBE is the director of the Master NSE and chairman of the Board of
Examiners for the M2 year (M2 Jury). She participates in the UE S1-5 “Basics of Physics”, S1-3
“Characterization Tools for Nanostructures” and S2-5 “Project Management Workshop”
Pr. Dr. Catherine JOURNET GAUTIER
Team “Functional Materials and Nanostructures”
Laboratory of Multimaterials and Interfaces (LMI)
UBC Lyon 1 – Building Chevreul, 2nd floor
43 boulevard du 11 novembre 1918 - 69622 VILLEURBANNE
Tel: (33).04 72 43 35 64 - [email protected]
Research activities: Synthesis and characterization of Carbon and Boron Nitride Nanotubes Electric arc discharge synthesis - Chemical Vapor Deposition (CVD), Hot Filament CVD (HFCVD),
Plasma Enhanced CVD (PECVD) - Transmission electron Microscopy - Scanning electron
Microscopy - Field emission – Ultra High Vacuum
Pr. JOURNET GAUTIER is an associate director of the Master NSE for the Université Claude
Bernard Lyon 1 and chairman of the Board of Examiners for the M1 year (M1 Jury) She is in
charge of the Seminars offered during both years of the master (UE S1-11 and S3-13)
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Pr. Dr. Karine MASENELLI VARLOT
Member of the Institut Universitaire de France
Group Structures Nano- et Microstructures
Laboratoire Matériaux : Ingénierie et Sciences (MATEIS)
INSA Lyon - Building Blaise Pascal, 1st floor
7, avenue Jean Capelle - 69621 VILLEURBANNE
Research activities deal with the development of electron microscopy tools for the
characterisation of materials and the understanding of the relationships between their
microstructure and their macroscopic properties (mechanical of optical properties).
Pr. MASENELLI VARLOT is an associate director of the Master NSE for the Master NSE for the
INSA de Lyon. She is in charge of the UE S2-6 “Research Internship” and S4-1 “Master Thesis
Project”
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Teaching staff
Each course (UE) of the Master is usually taught by several teachers in charge of the various
subjects belonging to them. There is one teacher in charge of the overall course (UE).
Dr. Tristan ALBARET
Assistant professor at the Université Claude Bernard Lyon 1
Theory and Modelisation group
Lab. de physique de la matière condensée et nanostructures (LPMCN)
UCB Lyon 1 - Building Brillouin, 4th floor
43 Boulevard du 11 Novembre 1918 - 69622 VILLEURBANNE
As a lecturer Dr. Albaret teaches at different levels. His research is based on atomistic
simulations of materials. He both uses and develops techniques ranging from statistical analysis
to electronic structure calculations including also molecular dynamics and hybrid methods that
couple classical molecular dynamics and electronic structure calculations. His present fields of
interest are related to material science problems for instance fracture, mechanics of
amorphous systems, brittle-fragile transition, ageing of materials, etc.
Dr. ALBARET is in charge of the UE S3-7 “Computer Modelling of Nanoscale Systems”
Dr. Taha BENYATTOU
Research Director – CNRS
Nanophotonic group
INSA Lyon - Nanotechnology Institute of Lyon (INL)
INSA - Building Blaise Pascal, 2nd floor
7 avenue Jean Capelle - 69621 VILLEURBANNE
Dr BENYATTOU is in charge of the UE S1-4 “Quantum Engineering”
Dr. Anne-Laure BIANCE
Liquids and interfaces group
UCB Lyon 1 - Building Brillouin, 4th floor
Tel : (33). 0472448228 - [email protected]
Dr. BIANCE is in charge of the UE S1-9 “Physical Chemistry and Molecular Interaction
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Dr. Danièle BLANC-PELISSIER
Photovoltaic group
INSA - Building Blaise Pascal, 2nd Floor
Research activities in the Photovoltaic group:
- Silicon solar cells; Laser micro-machining for solar cell fabrication with improved
efficiency/cost ratio. New solar cell design using laser technology. Laser-matter interaction
study; Electro-optical characterisation of silicon material and solar cells (lifetime/diffusion
length measurement by Light Beam Induced Current and Photoluminescence)
Dr. BLANC-PELISSIER is in charge of the UE S3-9 “Solar Cells and Photovoltaics”
Carole BREMEERSCH
Legal Counsel
INPI Rhône-Alpes Lyon
8 rue Paul Montrochet – 69002 LYON
Tel: (33). 04 37 27 11 39 - [email protected]
Ms BREMEERSCH’s activities consist of making economic actors (either
current or future) aware of the importance of Industrial and Intellectual
Property, by giving them the appropriate training. The IP course is given by IP Professionals
(INPI agents, outside counsels, IP Valorisation specialist, and a Philosopher).
C. BREMEERSCH is in charge of the UE S3-15 “Intellectual property”
Dr. Hervé DUMONT
Heteroepitaxy and nanostructures group
ECL - Building F7, ground floor
Tel : (33).04 72 18 62 47 – [email protected]
Dr. DUMONT is in charge of the UE S3-11 “Nanoelectronics”
Pr. Dr. Rosaria FERRIGNO
Microfluidics and microsystems group
UCBL - Nanotechnology Institute of Lyon (INL)
UCB Lyon 1 - Building Brillouin , ground floor
6 rue André-Marie Ampère - 69622 VILLEURBANNE
Tel: (33).04 72 43 19 23 – rosaria.ferrigno@univ-lyon1;fr
Pr. FERRIGNO is a teacher in the UE S3-4 “Micro- and Nanofluidics”
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Dr. Matthias HILLENKAMP
Research scientist – CNRS
Institut Lumière Matière (ILL)
UCB Lyon 1 – Building Alfred Kastler, 3rd floor, room 305
10 rue Ada Byron - 69622 VILLEURBANNE
04 72 43 11 21 - [email protected]
Dr HILLENKAMP studies the physical properties of cluster-assembled nanostructures consisting
of well-defined metal clusters and nanoparticles prepared in the gas phase and embedded in
protective solid matrices. He is interested in the size-dependent evolution of the optical,
magnetic and spintronic properties of these nanostructures. The electronic structure of matrixisolated metal clusters is studied with absorption and fluorescence spectroscopy as well as with
time-resolved femtosecond spectroscopy. Magnetism and spin-dependent transport are
studied in benchmark systems of small magnetic nanoparticles embedded in non-magnetic
matrices.
Dr. HILLENKAMP is in charge of the UE S3-10 “Nanomagnetism and Spintronics”
Pr. Dr. Florian KULZER
« Propriétés de luminescence de cristaux, verres et nano-objets » group
Laboratoire de Physico-Chimie des Matériaux Luminescents (LPCML)
UCB Lyon 1 - Building Alfred Kastler
Tel: (33).04 72 44 83 47 – [email protected]
Research activities: high-resolution optical microscopy and fluorescence spectroscopy - single
molecules and other nano-object used as local probes for their environment - detection
techniques for individual non-emitting nano-particles - structure and dynamics of glasses and
complex soft matter
Pr. KULZER is in charge of the UE S2-5 “Project Management Workshop”
Pr. Dr. Didier LEONARD
Surfaces, (bio) Interfaces – Micro and nano Systems group (SIMS)
Institut des Sciences Analytiques (ISA)
UCB Lyon 1
5 rue de la Doua - 69100 VILLEURBANNE
Pr. LEONARD is in charge of the UE S3-2 “Surface-Analysis Techniques
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Pr. Dr. Bruno MASENELLI
Head of the “Spectroscopy and Nanomaterial” group
Department of Science and Technology of Materials (SGM)
INSA - Building Blaise Pascal 502, 2nd floor, Room 247
Prof. Bruno Masenelli is Full Professor at the Institute of Nanotechnology of Lyon (INL),
department of Science and Technology of Materials (SGM) of the INSA Lyon, teaching physics of
semiconductor materials and nanostructures. His research interests are in Physics and
Engineering of light emitting nanomaterials. Current projects are dedicated to the design of
new and highly efficient nanolight sources for light detection, plasmon amplification and
photovoltaics.
Pr. MASENELLI is in charge of the UE S1-8 “Physics of Semiconductors, part 1” and S3-3 “Physics
of Semiconductors, part 2”
Pr. Dr. Alain MERMET
UCB Lyon 1 – Building Alfred Kastler
10 rue Ada Byron – 69622 VILLEURBANNE
Research interests: vibrational dynamics of nano-objects and disordered
materials
Pr. MERMET is in charge of the UE S1-6 “Solid State Physic”
Dr. Virginie MONNIER
Assistant professor at Ecole Centrale de Lyon
Chemistry and Nano biotechnologies group
ECL - Building F7, 3rd floor
As a researcher at INL, Dr. MONNIER elaborates plasmonic-fluorescent nanoparticles for cell
imaging in the Chemistry and Nano biotechnologies group.
Dr. MONNIER is in charge of the UE S1-5 “Basics of Physics”
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Pr. Dr. Ian O’CONNOR
Deputy
ECL - Building F7
Pr. O’CONNOR is in charge of the UE S3-8 “Multi-Domain System Integration”
Pr. Dr. Philippe PONCHARAL
Physic of nanostructures and field emission group
UCB Lyon 1 – Building Alfred Kastler, 5th floor
Pr Dr. PONCHARAL is in charge of the UE S2-2 “MEMS and NEMS”
Dr. Stephen PURCELL
UCB Lyon 1 – Building Brillouin
6 Rue Ada Byron - 69622 VILLEURBANNE
Dr. PURCELL is in charge of the UE S1-1 “Introduction to Nanoscale Engineering”
Dr. Laurent QUIQUEREZ
Nanotechnology Institute of Lyon (INL)
UCB Lyon 1 - Building Brillouin 203, ground floor
8 rue André Ampère - 69622 VILLEURBANNE
Dr. QUIQUEREZ is in charge of the UE S2-3 “Introduction to System Design”
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Dr. Helen REVERON
Research Scientist – CNRS
Leader of the “Ceramics and Composites” group
MATEIS Laboratory
INSA - Building Blaise Pascal, 5th floor
7 Av. Jean Capelle – 69621 VILLEURBANNE
Tel: (33) 04.72.43.62.39 - [email protected]
Dr. REVERON’s current research focuses on the development of bulk nanostructured ceramics
and on the study of the processing/microstructure/property relationship.
Dr. REVERON is in charge of the UE S3-5 “Micro- and Nanofabrication, part 2” which deals with
the processing of nanostructured materials and the microstructure-property relationship”
Dr. Pr. Jean-Paul RIEU
Research Scientist – CNRS
Head of Biophysics group
UCB Lyon 1 - Building Brillouin
43 Boulevard du 11 Novembre - 69622 VILLEURBANNE
Tel :(33)04 72 43 11 42 - jean-paul.rieu @univ-lyon1.fr
Pr. RIEUX is in charge of the UE S1-10 “Biomolecules, Cells, and Biomimetic Systems”
Dr. Charlotte RIVIERE
Liquids and interfaces group
6 Rue Ada BYRON - 69622 VILLEURBANNE
Dr. RIVIERE is in charge of the UE S2-4 “Drug-Delivery Systems”
Pr. Dr. Yves ROBACH
Head of the Department of Surface and Materials Science- ECL
Researcher at the Lyon Institute of Nanotechnologies (INL)
ECL - Building F7, 4th floor, room 7407
36 avenue Guy de Collongue – 69134 ECULLY
Tel: (33).04.72.18.62.44 - [email protected]
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Teaching activities: Atomic physics, Solid state physics, Nuclear engineering, Nuclear reactors,
Physics of semiconductor devices, Surface physics, Nanoscience and nanotechnologies, Physics
of thin films.
Research topics: Physics of surface and nanophysics, scanning probe microscopies, epitaxial
growth on semiconductors, functional oxides on silicon.
Pr. ROBACH is in charge of the UE S1-3 “Characterization Tools for Nanostructures”
Dr. Vincent SALLES
Laboratoire des Multimatériaux et Interfaces (LMI)
UCB Lyon 1 – Building Berthollet 2
2 Avenue Gaston Berger - 69622 VILLEURBANNE
Dr. SALLES is in charge of the UE S1-2 “Micro- and Nanofabrication, part 1”
Pr. Dr. Alfonso SAN MIGUEL
Deputy Director of the Institut Lumière Matière (ILL)
Director of the LPMCN
UCB Lyon1 - Building Brillouin , 2nd floor
Pr. San Miguel is a professor at the Department of Physics of the University Lyon 1 and ENS
Lyon. He is the leader of the "Extreme Conditions and Metastability" group and specialises in
the study of nano objects, nano systems and carbon systems under extreme conditions of
pressure, including various collaborations with industry.
Pr. San Miguel is in charge of the UE S2-1 “Nanomechanics “
Dr. Christian SEASSAL
Nanophotonics group, Department Photonics/ Photovoltaics
ECL, Building F7, 1st floor
Research activities: investigation and exploitation of light confinement in microcavities and
periodic structures, investigation of active structures and devices (microlasers, non linear and
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quantum structures and devices), new fabrication processes and characterisation systems for
nanophotonic structures, development of new concepts and new heterogeneous III-V/Silicon
integration technologies, development of new concepts of photovoltaic components using
photonic engineering.
Dr. SEASSAL is in charge of the UE S3-1 “Nano-Optics and Biophotonics”
Dr. Eliane SOUTEYRAND
ECL, Building F7, 3rd floor
Dr. SOUTEYRAND is in charge of the UE S3-6 “Biosensors and Biochips”
Pr. Dr. Loïc VANEL
Liquids and Interfaces group
Tel : (33). 04 72 43 10 21 - [email protected]
Pr. VANEL is in charge of the UE S1-7 “Continuum Mechanics”
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Administrative staff
Ecole Centrale de Lyon – ECL
Marie-Hélène LEVÉ
Direction des études ECL (Head of studies)
Assistant of the Dean of studies
ECL- Building administration (Z2), 1st floor
Tel : (33).04 72 18 65 94 – [email protected]
M. Hélène is in charge of lists of grades, transcripts and jury’s statements, and the procedure to
ask for residence permits (visas and cards).
Françoise MINJARD LEYNAUD
Service scolarité ECL (Admission and examination office)
In charge of Masters and PhDs
ECL- Building D5, ground floor
Tel : (33). 04 72 18 65 21 – [email protected]
Françoise is in charge of the ECL enrolment files, certificates and diplomas. She is a contact for
internship agreements.
INSA de Lyon
Emmanuel MONTERO
Administrator for the group Structures, Nano and micro-structures and for the
Lyon Center of Microscopy (CLYM)
MATEIS Laboratory
INSA - Building Blaise Pascal, 1st floor
3, Avenue Jean Capelle - 69621 Villeurbanne
Tel : (33). 04 72 43 83 85 – [email protected]
E. MONTERO is in charge of INSA enrolment files, INSA certificates and INSA diplomas. He is a
contact for internship agreements and visa formalities
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Université Claude Bernard Lyon 1 – UCB Lyon 1
Youssef EL MAMDOUHI
Faculty of Physics UCB Lyon 1
Service scolarité (Admission and examination office)
UCB Lyon 1 - Building Gabriel Lippmann, 1st floor, room 154
14, rue Enrico Fermi - 69622 VILLEURBANNE
Frédéric BROUSSIN
Faculty of Physics UCB Lyon 1
Service scolarité (Admission and examination office)
UCB Lyon 1 - Building Gabriel Lippmann, 1st floor, room 154
14, rue Enrico Fermi - 69622 VILLEURBANNE
UCBL enrolment files, UCBL certificates and UCBL diplomas, internship agreements and visa
formalities.
Ecole Supérieure de Chimie Physique Electronique de Lyon – CPE Lyon
Françoise DUCROT
Secrétariat des études
CPE - Building Hubert Curien
43, boulevard du 11 Novembre 1918 - 69616 Villeurbanne Cedex
Tél. : 33 (0)4 72 43 17 20 - [email protected]
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ACADEMIC CONSORTIUM
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ÉCOLE CENTRALE DE LYON (ECL)
École Centrale de Lyon is one of the top ten French engineering schools. As with most
engineering schools in France, called Grandes Écoles, ECL is independent of universities and
trains top industrial managers after a very selective admission process. École Centrale de Lyon
is part of the Group des Écoles Centrale, (Lille, Lyon, Marseille, Nantes, and Paris) which share a
vision of high-level training for multidisciplinary engineers.
École Centrale de Lyon accepts about 300 students a year into its engineering program, from
the top 700 science students in France. The students enter ECL under a very selective entrance
examination after at least two years of advanced-level post-high school education. About 50
additional students are admitted in this program from scientific universities around the world
on an accredited transfer exchange scheme. The students of this engineering program follow a
three-year curriculum with the two first years dedicated to broad-based engineering courses
and the third year devoted to a particular area (Computer Science, Materials, Mechanical
Engineering…). The Diplôme d’Ingénieur awarded is comparable to a Master of Science degree.
École Centrale de Lyon offers 13 Master of Science programs, in agreement with Lyon’s other
higher education institutions, to about 100 students a year. Lessons are delivered by a team of
high-quality teaching staff, including teachers, researchers and nationally and internationally
recognized external speakers who are in direct contact with the latest scientific and industrial
innovations.
In 2012, 230 students are doing their PhD in one of the 6 laboratories of ECL, in cooperation
with partner industries or other educational establishments.
École Centrale de Lyon’s laboratories offer high-tech characterization and design equipment, as
well as world-class testing platforms, many of which are unique in France. These 6 laboratories,
all with the CNRS label of excellence, provide exemplary services to their major industrial
partners.
École Centrale de Lyon is a member of the Université de Lyon*
http://www.ec-lyon.fr
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INSTITUT NATIONAL DES SCIENCES APPLIQUEES DE LYON (INSA
Lyon)
INSA Lyon is ranked among the top universities of Science and Technology in Europe,
pluridisciplinary and international, at the heart of the European Higher Education Area.
INSA Lyon belongs to a group of 5 INSA schools in France (Lyon, Rouen, Rennes, Strasbourg and
Toulouse). Over a 5-year curriculum, INSA de Lyon trains humanist multi-competent engineers
who are both innovative and entrepreneurial. It graduates about 1000 engineers each year in
12 fields of specialisation.
The students are usually selected after the Baccalauréat (A-level). They first follow a two-year
curriculum focused on broad-based scientific and humanist courses, possibly in international
groups or groups including arts or high-level sports. Then, the students are accepted into one of
the 12 specialisation departments (materials sciences, biochemistry and biotechnology,
computer science, environmental science, mechanical engineering, communications …).
During the entirety of the 5-year program, internships are performed in or in collaboration with
companies.
INSA-Lyon has a strong international practice: it has more than 230 partner universities all over
the world, which host more than 600 students from INSA-Lyon a year. At the same time, INSALyon trains students from more than 100 countries (30% of the students come from overseas).
Moreover, it is possible to complete the first two years of the program in Germany, Spain, Italy
or Brazil.
INSA de Lyon offers 9 post-Master programmes and 11 Masters of Science programmes.
About 650 students are conducting their PhD in one of the 20 research laboratories of INSA de
Lyon, either in collaboration with other academic partners or with companies. 3 associated
international laboratories have been created at INSA-Lyon with Japan, Brasil or Canada.
INSA Lyon is a member of the Université de Lyon*
http://www.insa-lyon.fr
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UNIVERSITE CLAUDE BERNARD LYON 1 (UCB Lyon 1)
The University Lyon 1 attains excellence in the fields of higher education and research. The high
level of tuition, in a wide variety of subjects ranging from the health sciences to science,
technology and sport studies, means that Lyon 1 counts itself among the best of all French
universities.
Lyon 1's student population is of nearly 35 000. Nearly 80% of students opt for vocational
programmes: Lyon 1 produces no less than 9250 graduates per year.
Lyon 1's science sector also offers a vast choice of subjects: the DUT diploma provides training
in 17 areas of expertise for future technical managers. 57 vocational bachelor's degrees
prepare students for middle management jobs. 111 master's degrees (vocational, research or
combined vocational and research) prepare students for senior management jobs or for work in
research and development. Lyon 1 also offers a very high standard of specialized vocational
training in engineering (Polytech Lyon) and actuarial sciences (ISFA).
Lyon 1 awards 300 doctorates a year to students at the outcome of their research studies,
conducted in the university's laboratories, in cooperation with partner industries or other
educational establishments.
As a multidisciplinary university specializing in both fundamental and applied research,
University Lyon 1 has 73 state-funded research units working in three fields; health, the
environment and material technologies.
UCB Lyon1 is a member of the Université de Lyon*
http://www.univ-lyon1.fr
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*UNIVERSITE
DE LYON – UDL
Université de Lyon (UDL) is the most important French University institution outside the
Paris region. It has 130,000 students, 11,500 teacher-researchers, 5,700 PhD students and 180
public laboratories. The Université de Lyon brings together in a unifying structure 20 higher
education and research institutions of the Lyon/St Etienne metropolitan area. The Université de
Lyon is a public institution officially created by a ministerial decree in March 2007.
UDL is a research and higher education consortium (PRES – Pôle de Recherche
et d’Enseignement Supérieur) created under the legal form of a Public Institution for
Scientific Cooperation. In addition to its missions set by the French research code, the
Université de Lyon has initiated strong cooperation between its member institutions. It takes
the lead on infrastructure projects and particularly intricate joint strategies and negotiations
with key partners.
The Université de Lyon does not enroll students: it awards its label to Masters courses offered
by at least two member institutions which correspond to national criteria for higher education
diplomas. The Master degree delivered at the end of the courses will be presented as follows:
“Master of the Université de Lyon delivered by (the concerned establishments)”.
http://www.universite-lyon.fr/
Caserne Sergent Blandan
37, rue du repos
69361 LYON CEDEX 07
Tel : (33).04 37 37 26 70
[email protected]
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Organisation of the Master
Enrolment in the institutions of the consortium
The fact that the Master is conducted by a consortium of three institutions allows for the
combination of educational resources and technological infrastructure to provide the students
with the best possible theoretical and practical training.
All NSE students have a primary (administrative) enrolment at one of the three participating
institutions and two pedagogical inscriptions (free of charge) at the other two institutions. The
primary inscriptions are distributed evenly over the three partners institutions; all students
receive the same joint diploma bearing the name of all three institutions.
Tuition fees for one year: 250 euros
The Scientific and Teaching Council
This Council is composed of the head of the Master and deputy heads, personalities of the
scientific and socio-economic world, including professionals from industries in the "nano"
world, the laboratory directors, partners, representatives of socio-economic backgrounds. The
Council in particular takes care of the adequacy between academic offerings and research
topics from priority partner laboratories and needs of industry partners. It also proposes
necessary changes in terms of education to better meet the expectations of laboratories and
industry partners in this scientific field in constant evolution.
Composition of the council:
Head of the Master and deputy heads
Laboratory directors
Academic experts
Magali Phaner-Goutorbe (ECL)
Karine Masenelli-Varlot (INSA)
Catherine Journet-Gautier (UCBL)
Catherine Bru-Chevallier (CNRS)
Alfonso San Miguel (CNRS)
Joël Courbon (MATEIS)
Philippe Peyla (Univ. J. Fourier, Grenoble)
Liviu Nicu (LAAS Toulouse)
Simon Scheuring (Institut Curie Paris)
Personalities of the socio-economic world
Nicolas Leterrier (Minalogic)
CEA representative
Marie-Noëlle Semeria (LETI Grenoble)
International expert
Laura Montanaro (Politecnico Torino Italy)
Master students representatives
M1 and M2 representatives
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The Education Committee
The Education Committee's mission is to define and implement instructional strategy training.
As such, it runs the admission panels of students, examines the validation of credit by the
equity method, organizes lessons, writes the annual regulation studies and particularly the
methods of knowledge control, and defines the distribution of lectures, tutorials, practical work
and other academic training functions between the partner institutions.
The education committee is composed, according equal representation between the three
institutions, by teachers involved in the program.
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STRUCTURE OF THE MASTER’S PROGRAM
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Curriculum of the Master Nanoscale Engineering
The Nanoscale Engineering Master is a two-year program corresponding to
120 ECTS credits.
The first year (M1) and the second year (M2) are both divided into 2
semesters (M1-1, M1-2, M2-1, M2-2), all weighting 30 ECTS.
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Remedial courses
Given the diverse scientific background of the students (physics, chemistry, electrical
engineering, biology), it is essential to ensure that all of them can nevertheless acquire the
scientific and technological basics of nanotechnology in an adequate manner at the beginning
of the M1 semester. A key element to meet this challenge is the course:
UE S1-5
Basics of Physics
0 ECTS
Students are assigned to this course on the basis of an entrance exam in physics that everybody
is required to take, irrespective of their Bachelor specialization. Remedial courses must be
passed in addition to the regular program whenever necessary, without conveying any extra
ECTS points.
Core courses
49 ECTS
These courses impart the fundamental knowledge in the nanotechnology field applied to
physics, electronics, optics, materials science and biotechnology. They are divided into two
groups between semester 1 (M1-1) and semester 3 (M2-1).
Semester 1 (M1-1)
29 ECTS
There are four compulsory core modules:
UE S1-1
Introduction to Nanoscale Engineering
2 ECTS
UE S1-2
Micro- and Nanofabrication, part 1
5 ECTS
UE S1-3
Characterization Tools for Nanostructures
5 ECTS
UE S1-4
Quantum Engineering
5 ECTS
In addition, students have to select a minimum of three major courses from the following list
of five courses:
UE S1-6
Solid State Physics at the Nanoscale
4 ECTS
UE S1-7
Continuum Mechanics
4 ECTS
UE S1-8
Physics of Semiconductors, part 1
4 ECTS
UE S1-9
Physical Chemistry and Molecular Interaction
4 ECTS
UE S1-10
Biomolecules, Cells, and Biomimetic Systems
4 ECTS
Semester 3 (M2-1)
20 ECTS
Students have to select a minimum of four major courses out a list of seven:
UE S3-1
Nano-Optics and Biophotonics
5 ECTS
UE S3-2
Surface-Analysis Techniques
5 ECTS
UE S3-3
5 ECTS
UE S3-4
Micro- and Nanofluidics
5 ECTS
UE S3-5
5 ECTS
UE S3-6
Biosensors and Biochips
5 ECTS
UE S3-7
Computer Modeling of Nanoscale Systems
5 ECTS
27
Elective courses
12 ECTS
These courses cover a wide range of nanotechnology-related disciplines and thus allow the
students to specialize according to their preferences as well as to broaden their expertise. They
are divided into two groups between semester 2 (M1-2) and semester 3 (M2-1)
Semester 2 (M1-2)
Students have to select a minimum of three courses from a list of four:
UE S2-1
Nanomechanics
UE S2-2
MEMS and NEMS
UE S2-3
Introduction to System Design
UE S2-4
Drug-Delivery Systems
Semester 3 (M2-1)
Students have to select a minimum of three courses from a list of five:
UE S3-8
Multi-Domain System Integration
UE S3-9
Solar Cells and Photovoltaics
UE S3-10
Nanomagnetism and Spintronics
UE S3-11
Nanoelectronics
UE S3-12
Tissue and Cell Engineering
Ancillary courses
6 ECTS
2 ECTS
2 ECTS
2 ECTS
2 ECTS
6 ECTS
2 ECTS
2 ECTS
2 ECTS
2 ECTS
2 ECTS
3 ECTS
The ancillary modules are the Seminars (S1-11, 1 ECTS and S3-13, 1 ECTS), taking place in
semester 1 (M1-1) and semester 3 (M2-1), and the Bibliography project (S3-14, 1 ECTS) in
preparation of the Master thesis during the semester 3 (M2-1).
Professionalization courses
6 ECTS
These courses deal with complementary know-how, relevant both for academia and in an
industrial environment, such as acquiring communication skills for oral presentations and
written reports, preparing a CV, conducting project management, working in a team.
The project of the first year (UE S2-5) consists of exploring a nanotechnology-related topic in a
small group, for example by compiling a report on the state of the art in some domain of
nanotechnology and its implications for society, by designing a prototype of a device or by
developing a new concept for a practical course. The independent group work is supported by
courses on bibliographical research, project management, presentation and communication.
28
The S3-15 module focuses on intellectual property and ethical point of view on the
nanoscience.
UE S2-5
UE S3-15
Project Management Workshop
Intellectual property
Research Internship
4 ECTS
2 ECTS
20 ECTS
The Research internship (UE S2-6) is divided into two separate periods of two months and
10ECTS points each, to allow the students to work on two different topics and get practical
application of the subjects covered in their courses, emphasizing on the experimental aspect.
Master thesis research project
30 ECTS
Semester 4 (M2-2) is exclusively dedicated to the Master thesis research project (UE S4-1). The
student will spend 5 to 6 months in an academic research group or in an industrial laboratory,
anywhere in France or abroad.
29
List of courses
Semester 1
type
comp
rem
major
ancil
title
code
S1-1
credit
2
S1-2
5
S1-3
5
Quantum Engineering
S1-4
5
Basics of Physics
S1-5
—
Solid State Physics at the Nanoscale
S1-6
4
Continuum Mechanics
S1-7
4
S1-8
4
Physical Chemistry and Molecular Interactions
S1-9
4
S1-10
4
Seminars
S1-11
1
choice total
—
2
—
15
—
—
3/5
12
_
1
30
Semester 2
type
title
code
Nanomechanics
S2-1
credit
2
MEMS and NEMS
S2-2
2
elective Introduction to System Design
S2-3
2
2
choice total
3/4
6
Drug Delivery Systems
S2-4
prof
S2-5
4
—
4
intern
Research Internship
S2-6
20
—
20
30
30
Semester 3
type
major
title
code
S3-1
5
S3-2
5
S3-3
5
S3-4
5
S3-5
5
S3-6
5
S3-7
5
S3-8
2
S3-9
2
S3-10
2
Nanoelectronics
S3-11
2
S3-12
2
Seminars
S3-13
Bibliography Project
S3-14
Intellectual Property
S3-15
elective Nanomagnetism and Spintronics
ancil
prof
credit
choice total
4/7
20
3/5
6
1
—
1
1
—
1
2
—
2
30
Semester 4
type
title
code
intern
Master Thesis Research Project (5-6 months full
time)
S4-1
credit
30
choice total
—
30
31
Seminars and workshops
Below are some examples of seminars given during the past academics years
Industrial seminars
-Innovations and research in the Saint-Gobain Group; focus on thin films
-Energy applications of Nanotechnology
-Smart energy solutions
-Technologies, Start up creation
-Nanotubes industrial production
-Toxicolocy effects of nanoparticles in vitro
-Manufacturing & commercialising high quality Zinc Oxide (ZnO) thin film coatings &
nanostructures.
Research seminars
-From carbynes and nanotubes to grahEnes, graphAnes, and sp2-nanofoams
-An Overview of Nanotribology
-The Smallest Photon
-Towards « lab on chip » systems for the earlydiagnosis of neurodegenerative diseases
-Electronic properties in C and CN single-wall nanotubes : combined TEM-STM approach
-Nanoscale mechanics of collagen
- Superconducting sensors and its applications
Annual meeting of the GDR-I GNT: Graphene and Nanotubes – Science and Applications
From 23rd to 27th January 2012, a nanotube workshop was
held in Ecully. The purpose of this conference, attended by
about 200 researchers and engineers, was to address the
latest results in the science and applications of nanotubes,
graphene and related materials. The physical, chemical and
biological properties of these materials were discussed
throughout tutorials, invited talks, oral contributions and
posters.
Master's students were invited to attend this conference
and ask questions directly of researchers. Then, they were
evaluated by turning in a report of around 10 pages divided
in three parts, based on one of the invited presentations,
one of the tutorials, and one of the regular talks,
respectively.
32
COURSES IN DETAIL
33
UE S1-1
ECTS
Lectures
Practicals
Lecturer
2
8 hours
Outline
This introductory course has three main objectives:
Stephen Purcell
[email protected]
-to give an overview of nanoscience and technology;
-to provide an overview of laboratories and companies working in
the nanoengineering domain in the region;
-to improve capabilities in information research, synthesis and
communication.
Representatives of local laboratories and of companies that are
working in nanoscience will present their activities to the students,
who will in turn be asked to prepare a presentation of a laboratory or
company.
Evaluation
Oral presentation (10-15 minutes)
UE S1-2
ECTS
Lectures
Practicals
Lecturer
5
30 hours
24 hours
Vincent Salles
[email protected]
Outline
Introduction :
-Emergence of nanotechnology
-Nanostructures in zero, one, two and three dimensions
-“bottom-up” and “top-down” approaches
Zero-dimensional nanostructures: nanoparticles :
-Nucleation and homogeneous growth
-Synthesis of metal nanoparticles (reduction)
-Synthesis of oxide nanoparticles (sol-gel process)
-Synthesis in confined environments (micelles, emulsions)
One-dimensional nanostructures: Nanowires and nanorods :
-Spontaneous growth (evaporation/dissolution-condensation)
-Growth by vapor-liquid-solid (VLS) and solution-liquid-solid (SLS)
techniques
-Synthesis from a preform (electrochemical deposition, colloidal
34
dispersion, chemical vapor deposition)
-Polymer-derived ceramics
Two-dimensional nanostructures: layers :
-Chemical vapor deposition (CVD) and physical vapor deposition
(PVD)
-Electrochemical deposition
-Sol-gel layers
Other nanostructures :
-Fullerenes and carbon nanotubes
-Core-shell systems
-Porous structures and hybrids
Nanostructuring by physical processes :
-Photolithography and electron-beam lithography
-Nanolithography: atomic force microscopy and scanning-tunneling
microscopy
-Other methods: mechano-synthesis
Conclusions
Lab practicals in the NanoLyon cleanroom
Evaluation
-written exam
-oral presentation of a research article
UE S1-3
ECTS
Lectures
Practicals
Lecturer
5
30 hours
12 hours
Yves Robach
[email protected]
Outline
Nanostructures and nanomaterials have interesting specific
properties arising from their low dimensionnality and/or from the
increased influence of the surface. This course presents the main
methods of nanoscale-observation of surfaces and interfaces, and
the main methods of local characterization for structures of low
dimensionality (e.g., morphological, optical, and spectroscopic
characterization). The discussed techniques will be illustrated by
specific applications in various fields of nanoscience, nanotechnology
and biology.
35
Outline of the course:
1.
Optical microscopy: confocal and fluorescence microscopy
2.
Scanning near field microscopy (STM, AFM, SNOM)
3.
Electron microscopy (SEM, TEM)
Prior knowledge : basic knowledge of optics, wave propagation and
microscopic physics
Bibliography: Ernst Meyer, Hans Joseph Hug, Roland Bennewitz,
“Scanning Probe Microscopy: the Lab on a Tip”, Springer-Verlag,
Berlin, 2004
Evaluation
UE S1-4
ECTS
Lectures
Practicals
Lecturer
Outline
-
Written exam
graded reports on lab practicals
Quantum Engineering
5
30 hours
8 hours
Taha Benyattou
[email protected]
This course deals with the aspects of quantum mechanics that have
implications for nanotechnology. the first part of the course
discusses the formalism of quantum mechanics with attention to
practical nanotechnology. The rest of the course is dedicated to
engineering applications of quantum mechanics: nanodevices and
quantum information processing.
Outline of the course
1.
Fundamentals of quantum mechanics and their applications
•
Quantum states and their superposition
•
Measurements, observables and operators
•
Collapse of wave packets
•
Heisenberg uncertainty relations
•
The Schrödinger equation
•
Application to tunneling microscopy
•
The one-dimensional well and confinement effects in
semiconductors
•
Perturbation theory
•
Confined Stark effect
36
•
2.
3.
Emission and absorption of light
Quantum nanodevices
•
Quantum confinement and microelectronics
•
Schrödinger-Poisson coupling (small MOS, HEMT)
•
Transport phenomena in low-dimensional systems
•
Transport phenomena in planar systems (e.g. HEMT)
•
Tunnel effects (MOS, RTD)
•
Nanoelectronic with single electrons
•
Coulomb blockade
•
Single-electron transistors
•
Confinement and optoelectronics
•
Confinement and charge carriers
•
Combined confinement of charge carriers and photons
•
Single-photon sources
Quantum information and communication
•
The quantum bit exemplified by the photon
•
Quantum cryptography
•
Entanglement, Bell inequalities and the Aspect experiment
•
Quantum teleportation
•
Examples of simple quantum-computing algorithms
•
Classical information versus quantum information
•
The problem of decoherence
Evaluation
Written exam
UE S1-5
ECTS
Lectures
Tutorials
Lecturer
Basics of Physics
0
16 hours
14 hours
Virginie Monnier
[email protected]
Outline
This course provides a basic knowledge of physics and is compulsory
for all students who do not have a physics bachelor, to ensure that
they will be able to follow the other courses of the Master of
Nanoscale Engineering.
•
Vibrations and wave-propagation phenomena
37
•
•
•
•
•
•
Propagation phenomena (stationary and propagating
waves)
•
Normal modes of vibration
•
Interference and diffraction of waves
•
Phonons
Elements of crystallography
•
Crystal lattices (in two and three dimensions, lattice planes,
Bravais lattices, examples)
•
Reciprocal lattices
•
X-Ray diffraction
•
Bragg’s law
Introduction to electrical properties of matter
•
Electric and magnetic fields, forces and dipoles in vacuum,
Gauss theorem
•
Modifications in the presence of matter (metal, insulator),
Drude model
Concepts of statistical thermodynamics
•
Statistical ensembles
•
Distribution laws (Fermi-Dirac, Bose-Einstein, MaxwellBoltzmann)
•
Statistical entropy
Classical thermodynamics
•
The ideal gas and kinetic gas theory
•
Thermodynamics parameters
•
Laws of Thermodynamics
Introduction to quantum physics
•
•
Wave-particle duality
•
The wave function
•
The Schrödinger equation
•
Application to a step potential
•
The potential well
Energy levels in matter
•
The Energy levels of the atom
•
Electronic configurations
•
Energy bands in solids
•
Photon-electron interaction
•
The photoelectric effect
38
Evaluation
•
problem-based learning
•
written exam
UE S1-6
ECTS
Lectures
Tutorials
Lecturer
Solid State Physics
4
28 hours
26 hours
Alain MERMET
[email protected]
Outline
1.
Cohesive energy in solids
2.
Crystal structures
3.
The free electron gas model
4.
Energy bands in solids: nearly free electron gas model and tight
binding methods
Evaluation
5. Vibrations in crystals and thermal properties
Written exam
UE S1-7
ECTS
Lectures
Tutorials
Lecturer
Continuum Mechanics
4
28 hours
26 hours
Loïc Vanel
[email protected]
Outline
1.
Continuum limit, conserved quantities and continuity relation
2.
Diffusive processes: macroscopic laws (Fourier’s for heat, Fick’s
law for mass) and microscopic models (random walk, Langevin
equation)
3.
Stress tensor and the general equation of motion
4.
Elasticity theory: strain tensor, elastic energy, Hooke’s law,
isotropic solids, full solution of a few static deformation
problems, elastic wave propagation
5.
Fluid kinematics: Lagrangian and Eulerian motion, deformation
of fluids, mass conservation
6.
Fluid dynamics: Newtonian viscous stress tensor, Navier-Stokes
equation, boundary conditions, Reynolds number, other
conservation laws, unidirectional and incompressible flows,
perfect fluids, potential flows, vorticity
39
Evaluation
Written exam
UE S1-8
ECTS
Lectures
Tutorials
Lecturer
4
30 hours
16 hours
Bruno Masenelli
[email protected]
Outline
The course introduces the fundamental concepts of semiconductor
solid state physics and shows how the electronic and optical
properties can be finely tuned in these materials. It further highlights
the prominent role played by semiconductor materials in the design
of common electronic and opto-electtronic devices (transistors, LEDs
...). Synthesis techniques and elaboration routes are presented as
well.
Prior knowledge : Basics of Physics (UE S1-5, for non-physicists)
Evaluation
Written exam
UE S1-9
ECTS
Lectures
Tutorials
Lecturer
Physical Chemistry and Molecular Interaction
4
12 hours
12 hours
Anne-Laure Biance
[email protected]
Outline
With decreasing size of systems, the influence of surface effects
starts to dominate over volume effects. This course presents the
intermolecular forces and the surface forces which govern the
interactions in matter on the submicron scale and thus determine
the mechanical and fluidic properties of micro-systems, such as
adhesion, friction, and functionalization.
•
Main types of interactions in colloidal matter
short- and long-range interactions, specific interactions,
examples
•
Van der Waals interactions between molecules and surfaces
•
The Laplace model of surface tension
Surface energy, adhesion energy, classical theory of capillarity,
40
thermodynamic aspects, contact angles, wetting, high- and lowenergy surfaces
•
Evaluation
UE S1-10
ECTS
Lectures
Tutorials
Lecturer
Measurement techniques for interactions and weak forces
The Deryaguin approximation, atomic force microscopy, surface
forces, vesicle-based methods
Prior knowledge: Basics of Physics, mechanics of point masses and
solids, thermodynamics, free energy and enthalpy, chemical
potential, phase diagrams, electrostatics
Written exams
4
30 hours
Jean-Paul Rieu
[email protected]
Outline
This course provides a basic knowledge of biology for students with a
physics, chemistry or engineering background. Students with a
background in biology are exempt from taking this class.
Part A: Introduction to Biology
•
•
•
•
The cell – structure and function
•
Main types of cellular organization
•
Examples of biotechnological applications
•
Introduction to cellular function
The cell and its environment
•
The constituents of the extracellular matrix
•
Examples of applications – biomaterials
•
Molecular basis of cell adhesion
The cytoskeleton and cellular mobility
•
The cytoskeleton
•
Microtubules and microfilaments
•
Muscular contratction and non-muscular motility
The cellular membrane – constituents and function
•
Models of the fluid membrane
•
Lipids, proteins, and carbohydrates of the membrane
•
Interaction of the membrane with the extracellular
41
environment
•
•
•
•
•
Phenomena of membrane transport
Molecular genetics
•
Structure and properties of nucleic acids
•
Biosynthesis of DNA and its applications (sequencing,
PCR, DNA microarrays)
•
Transcription and translation
From amino acids to enzymes – properties of proteins
•
The structure of proteins
•
Enzymes: catalysis, kinetics, inhibition
The energy of cells
•
Mitochondria and the respiratory chain
•
Chloroplasts and photosynthesis
•
Cellular energetics and microsystems
The immune system and vaccinations
•
Endogenous and exogenous substances
•
The immune system
•
Cellular and molecular bases on immunity
•
Vaccinations (with examples of delivery systems)
Part B: Biomimetic Systems
•
•
•
In-vitro measurement of molecular interactions
•
Force-distance measurements by AFM (physicochemical interactions, ligand-receptor interactions,
rigidity of macromolecules)
•
Other techniques to measure molecular interactions
•
Functionalization of surfaces
Biomimetic membranes at the air-water interface and on
supports
•
Amphiphilic molecules and lipid monolayers
•
Thermodynamics of interfaces
•
Supported lipid membranes
•
Investigation techniques (Thermometry, fluorescence
microscopy, AFM, ellipsometry, quartz micro balances)
Artificial cells
•
Giant lipid vesicles – fabrication, physical and
mechanical properties and characterization
•
Toward artificial cells?
42
Evaluation
Written exam
Graded oral presentation
UE S1-11
ECTS
Lectures
Tutorials
In charge
Seminars
1
Outline
Catherine Journet-Gautier
[email protected]
These seminars provide students with the opportunity to get to know
partners from industry and academia, who give presentations on
their activities. This allows students to appreciate the role of
nanotechnology in the socioeconomic world. Ethical and legal
aspects of the increasing utilization of nanotechnology will also be
covered.
Examples of previous seminars:
Evolution of nanotechnology in microelectronics (CEA Leti)
•
Hybrid nanomaterials (Nano-H)
•
Nanotechnology and nanomaterials in electron microscopy
(Arkema)
•
Liquid lenses – an optical revolution (Varioptic)
•
Innovation and research in the Saint-Gobain Group - focus on
thin films
•
Energy Applications of Nanotechnology (AREVA)
•
High quality ZnO thin film coatings and nanostructures
(Nanovation)
•
Very large scale integration of nano-electromechanical systems:
development of a new generation of ultra-sensitive sensors for
advanced solutions in biological applications (CEA Leti and
California Institute of Technology)
•
Detection of engineered nanoparticles using commerciallyavailable and laboratory-made instrumentations: workplace
surveillance and process monitoring (INERIS)
•
Evaluation
Carbon nanotubes: from the laboratory to commercial
development (Arkema)
Attendance check
UE S2-1
ECTS
Nanomechanics
2
43
Lectures
Tutorials
Lecturer
13 hours
7 hours
Alfonso San Miguel
[email protected]
Outline
The mechanical properties of nanomaterials give rise to numerous
industrial applications: ultra-hard composites for tools,
reinforcement materials, protection layers, food preservation, etc.
The extraordinary ratio between surface and volume in
nanomaterials and its consequences are at the heart of the
excellence of nanomaterials in these activity sectors.
The lectures will impart the knowledge that is necessary to
understand – at a state-of-the-art level – the mechanical properties
of nanomaterials with examples of current applications and
perspectives for future developments.
The course is divided into four parts that are introduced through
concepts, examples and exercises:
•
Mechanical characteristics of materials
•
Nanomechanics of individual
fullerenes, nanocrystals
•
Nanomechanics
of
assembled
nanomaterials:
from
homogeneous to heterogeneous systems (nanocomposites)
•
Production of nanomaterials by mechanical means
nanomaterials:
nanotubes,
Prior knowledge: Bachelor-level education (three years) in
engineering, physics, chemistry, or a related field
Evaluation
Bibliography: Autar K.Kaw, “Mechanics of Composite Materials” (CRC
Series in Mechanical and Aerospace Engineering) CRC Press, Boca
Raton, second edition, 2005
Written exam
UE S2-2
ECTS
Lectures
Tutorials
Lecturer
MEMS and NEMS
2
20 hours
Outline
Introduction to MEMS/NEMS
Philippe PONCHARAL
[email protected]
Materials for MEMS and NEMS properties of silicon
44
Principles of operation and examples
Evaluation
UE S2-3
ECTS
Lectures
Practicals
Lecturer
Modelling of MEMS/NEMS
Written exam
Introduction to System Design
2
20 hours
8 hours
Laurent Quiquerez
[email protected]
Outline
The combination of nanoscale elements to form complex functional
systems on microscopic and macroscopic length scales is the natural
domain of application for nanotechnology, This principle already
finds wide application in several economic areas, for example
microelectronics, transportation and healthcare.
This course provides the materials needed for the
understanding, the analysis, and the integration of such systems. The
notion of a system and its conception, from the vantage point of
students of nanotechnology, is explored via a case study. The
students will thus acquire the technical competence for the
specification, the analysis and the optimization of systems which rely
on phenomena on a variety of different scales.
•
•
•
Evaluation
Introduction
•
The notion of “a system”
•
Examples of systems and size effects (the system is more
than the sum of its parts)
Design Methodologies
•
Functional and structural analysis
•
Representations: programs and organigrams
•
Design methods: bottom-up and top-down
Methods and tools for top-down design
•
Frameworks for the simulation of systems (FEM, ODE,
discrete time steps, ...)
•
Modelling of systems (Simulink, VHDL-AMS, systemC-AMS)
•
Optimization techniques
Two written exams
45
UE S2-4
ECTS
Lectures
Tutorials
Lecturer
Drug-Delivery Systems
2
20 hours
Outline
•
Charlotte Rivière
[email protected]
•
Biomedical Imaging
•
Magnetic resonance imaging (MRI) and magnetic
nanoparticles
Principles of MRI, positive and negative contract agents
•
Nuclear imaging and nanometric tracers
Priciples of positron emission tomography, currently-used
radioactive tracers, nanotechnological developments for
novel tracers
•
Optical imaging, intravital microscopy and fluorescent
markers
Principles of intravital imaging, classical organic
fluorophores, new nanotechnological markers
Vectorization and targeted delivery of drugs
•
•
Principles and challenges
Different
generations
nanotechnology
of
drugs,
pharmaceutical
•
Biochemical vectorization
Colloids and their biological functionalization, precautions
depending on the target zone, examples of nanoparticles,
current developments
•
Magnetic vectorization
Physical principles, current trials
Therapy
•
Environmentally-sensitive
temperature)
nanostructures
•
Magnetically-induced hyperthermia
•
Photodynamic therapy
•
Emergent therapies: IR hyperthermia, neutron therapy
(pH,
Evaluation
Prior knowledge: Biomolecules, Cells, and Biomimetic Systems (UE
S1-4, for non-biologists)
UE S2-5
46
ECTS
Lectures
Tutorials
Lecturer
4
Florian Kulzer and Magali Paner-Goutorbe
[email protected] – [email protected]
Outline
Evaluation
UE S2-6
ECTS
Lectures
Tutorials
Lecturer
The project of the first year consists of exploring a nanotechnologyrelated topic in a small group, for example by compiling a report on
the state of the art in some domain of nanotechnology and its
implications for society, by designing a prototype of a device or by
developing a new concept for a practical course. The independent
group work is supported by courses on bibliographical research,
project management, presentation and communication.
graded project reports and/or presentations
Research Internship
20
Karine Masenelli-Varlot
[email protected]
Outline
Evaluation
UE S3-1
ECTS
Lectures
Practicals
Lecturer
The Master of Nanoscale Engineering places great emphasis on
immersing the students in research laboratories so that they can see
the practical application of the subjects covered in the courses and
thus acquire a deeper and broader understanding. The research
internship is divided into two separate periods of two months and 10
ECTS points each. It allows students to work on two different topics
under the guidance of their supervisor.
Assessments of project supervisor; dissertations
5
30 hours
8 hours
Christian Seassal
[email protected]
Outline
The main topic of this course is the control of light at microscopic
and nanoscopic scales. The interaction between photons and
different media is considered, including semiconductors, dielectrics,
47
metals and biologic media. Different kinds of applications are
introduced, ranging from information transfer and data processing to
biosensing
The course is divided in 15 lectures and two practicals:
•
Lecture 1: Introduction to photonics,
nanophotonics, and biophotonics
microphotonics,
•
Lecture 2: Basic knowledge of optics
•
Lecture 3-4: Guiding light
•
Lecture 5-6: Localization of light (cavities, photonic crystals,
metamaterials)
•
Lecture 7-8: Absorption, Emission, Laser Physics
•
Lecture 9-10: Plasmons
•
Lectures 11-12: Biophotonics, single molecules and optical
tweezers
•
Lecture 13: Opto-fluidics
•
Lecture 14: Non-Linear Guided Optics
•
Lecture 15: Bibliography and Research Articles on Micro- and
Nanophotonics
•
Practical 1: Simulation of photonic devices and circuits
•
Practical 2: Characterization and testing of microlasers
Bibliography: Bahaa E.A. Saleh, Marvin C. Teich “Fundamentals of
Photonics” Wiley, New York, second edition, 2007
Evaluation
•
written exam
•
graded reports on lab practicals
UE S3-2
ECTS
Lectures
Practicals
Lecturers
5
30 hours
8 hours
Didier Leonard (in charge of the UE and practicals) [email protected]
Brice Gautier - [email protected]
Juliette Tuaillon-Combes - [email protected]
Outline
1.
Introduction
•
Context and Parameters
•
X-Ray interaction with matter
48
2.
3.
•
Electron interaction with matter
•
Ion interaction with matter
X-Ray detection based surface analysis techniques
•
Fluorescence
•
Diffraction
Electron detection based surface analysis techniques
(a) XPS – X-ray Photoelectron Spectroscopy
•
Principles (Auger electron energy; spectra derivation)
•
Instrumentation
•
Qualitative and quantitative analysis (core levels,
chemical shifts, Auger parameter, valence levels,
imaging)
(b) AES – Auger Electron Spectroscopy
4.
•
Principles (photoelectric effect, calibration, charge
effect)
•
Instrumentation
•
Qualitative and quantitative analysis (qualitative
analysis, SAM, depth profiling, chemical shifts)
Ion detection based surface analysis techniques
(a) SIMS – Secondary Ion Mass Spectrometry
•
Sputtering and ionisation
•
Instrumentation
detectors)
•
Dynamic SIMS – static SIMS (ToF-SIMS)
•
Applications
(ion
sources,
mass
analysers,
(b) ISS – Ion Scattering Spectroscopy and RBS – Rutherford
Backscattering
•
Low energy ion diffusion - ISS
•
High energy ion diffusion - RBS
•
Instrumentation
•
Applications
Practicals
XPS: instrumentation and applications
ToF-SIMS: instrumentation and applications
Bilbiography
•
John C. Vickerman, David Briggs (editors), “ToF-SIMS: Surface
Analysis by Mass Spectrometry”, Surface Spectra, 2001
•
John C. Vickerman, David Briggs and John T. Grant (editors),”
49
•
Surface Analysis by Auger and X-Ray Photoelectron
Spectroscopy”, Surface Spectra, 2003
John C. Vickerman, Ian Gilmore (editors), “Surface Analysis: The
Principal Techniques”, Wiley, New York, 2009 (second edition)
•
John F. Watts, John Wolstenholme, “An Introduction to Surface
Analysis by XPS and AES”, Wiley, New York, 2003 (second
edition)
•
John C. Rivière, Sverre Myhra (editors), “Handbook of Surface
and Interface Analysis: Methods for Problem-Solving”, CRC
Press, Boca Raton, 1998
•
David Briggs, M.P. Seah (editors), “Practical Surface Analysis:
Auger and X-ray Photoelectron Spectroscopy” (Volume 1), Wiley,
New York, 1990 (second edition)
•
David Briggs, M.P. Seah (editors), “Practical Surface Analysis: Ion
and Neutral Spectroscopy” (Volume 2), Wiley, New York, 1990
(second edition)
•
A. Benninghoven, F.G. Rüdenauer, H.W. Werner, “Secondary Ion
Mass Spectrometry: Basic Concepts, Instrumental Aspects,
Applications and Trends”, Wiley, New York, 1987
•
C. Richard Brundle, Charles A. Evans, Shaun Wilson,
“Encyclopedia of Materials Characterization: Surfaces,
Interfaces, Thin Films”, Butterworth-Heinemann,Stoneham,
1992
•
Gernot Friedbacher, Henning Bubert (editors), “Surface and Thin
Film Analysis: A Compendium of Principles, Instrumentation, and
Applications”, Wiley-VCH, Berlin, 2011
Evaluation
Written exam
UE S3-3
ECTS
Lectures
Practicals
Lecturer
5
20 hours
10 hours
Bruno Masenelli
[email protected]
Outline
The course presents the fundamental concepts and purposes of
semiconducting nanostructures. It shows how the size reduction of
semiconducting materials can lead to fundamental technological
breakthroughs. In particular, the tailoring of the properties of
electronic or phononic transport as well as of light emission are
illustrated through recent examples (superlattices, 2D electron gas,
50
quantum cascade lasers) and potential applications (nanowire
transistors, single photon sources).
Prior knowledge
Physics of Semiconductors, part 1 (UE S1-8, or an equivalent
introduction to the physics of semiconductors)
Bibliography
Peter Y. Yu and Manuel Cardona, “Fundamentals of Semiconductors:
Physics and Materials Properties”, Springer-Verlag, Berlin, fourth
edition, 2010
Claus F. Klingshirn, “Semiconductor Optics”, Springer-Verlag, Berlin,
third edition, 2007
Evaluation
UE S3-4
ECTS
Lectures
Practicals
Lecturer
Christophe Delerue, Michel Lannoo, “Nanostructures: Theory and
Modeling”, Springer-Verlag, Berlin, 2004.
Written exam
5
30 hours
8 hours
Rosaria Ferrigno (temporary, new person in charge on September
2013
[email protected]
Outline
This courses deals with the physical phenomena that govern the
dynamics of fluids at the micrometer and nanometer scale.
Applications derived from these principles will also be discussed, for
example the lab-on-a-chip concept.
•
Introduction of micro/nanofluidics and the lab-on-a-chip
•
General properties of flow at different Reynaolds numbers
•
Hydrodunamic flow at small length scales: the continuum limit
•
Wetting and thin films
•
Electrokinetic Phenomena
•
Polymer-based micro/nanotechnology
•
Transducers and microfluidic components (valves, mixers,
reactors, ...)
51
•
Evaluation
UE S3-5
ECTS
Lectures
Practicals
Lecturer
Examples of realizations and applications
Prior knowledge: Continuum Mechanics (UE S1-7)
Written exam
5
30 hours
16 hours
Helen Reveron
[email protected]
Outline
This course introduces some of the methods involved in the
production of fully-dense three-dimensional nanostructured
materials. Structure-property relationships will be discussed as well
as structured materials and multi-functional applications.
•
•
•
•
•
Introduction
•
Fabrication of nanomaterials: wet and dry approaches
•
Production of nanostructured materials (polymers, metals,
ceramics and composites)
•
Properties of nanostructured materials
Fabrication of nanostructured materials
•
General principles applied to polymers, metals, ceramics
and composites
•
Rheology of suspensions and mixtures
Elaboration methods
•
Powders (wet and dry techniques)
•
Extrusion
•
Injection
Sintering
•
Natural sintering
•
Sintering under pressure (HP, HIP)
•
Novel methods (microwaves, SPS)
•
Thermal treatments and recrystallization
Microstructure-property relationship
•
Influence of percolation on macroscopic properties
52
•
Size effects
•
Micro-nano and nano-nano composites
•
Selected applications: structures and multi-functional materials
•
Conclusions and future challenges
Bibliography
Evaluation
UE S3-6
ECTS
Lectures
Practicals
Lecturer
•
Alan S. Edelstein, Robert C. Cammarata (editors),
"Nanomaterials: Synthesis, Properties and Applications",
Institute of Physics Pub., Bristol, second edition, 1998
•
Carl C. Koch (editor), "Nanostructured Materials: Processing,
Properties, and Applications", William Andrew Publishing,
Norwich, second edition, 2007
•
Hari S. Nalwa (editor), "Handbook of Nanostructured Materials
and Nanotechnology", Academic Press, New York, 2000
•
written exam
•
graded reports on practical sessions
•
oral presentation of a research article
5
30 hours
4 hours
Eliane Souteyrand
[email protected]
Outline
This course introduces the main concepts related to the design, the
fabrication and the utilization of microsystems for molecular analysis
in complex environments, liquid or gaseous. Such systems include
sensors and biosensors, i.e., systems for the detection of certain
chemical species, as well as biochips, which are devices for
simultaneous multi-factor analysis,
The course shows how the fundamental notions in the relevant
scientific domains (physical chemistry of interfaces, biochemistry,
physical measurements, ...) must be articulated in a coherent way,
from the conception of biochips and their fabrication, to the
interpretation of the resulting data, in order to achieve an analytical
performance that is best adapted to the issue under investigation.
We will discuss examples from the domain of academic research as
well as commercialized systems, for applications related to health
and environment.
53
•
•
•
•
•
Chemical sensors and microsensors
•
Electrochemical
conductometry
sensors:
voltammetry,
amperometry,
•
Principles of solid-state chemical microsensors
•
Microsensors for ions (ISFET)
•
Gas sensors (GASFET) and other sensors
Biosensors
•
Structure of biosensors
•
Types of bioreceptors (enzymes, immunological receptors,
nucleic acids, others)
•
Types of signal transduction (optical, mass transport,
electrical, electrochemical)
Biochips
•
Classification of biochips
•
Design methodologies and tools
•
Fabrication methods
•
Chemical and biological functionalization of surfaces
•
Analysis methods: genotyping/mutations, gene expression,
proteomics
•
Fluorescence analysis on biochips
Examples of applications
•
Medical diagnostics
•
Environmental diagnostics
Analysis of the transcriptome
Prior knowledge
•
Evaluation
UE S3-7
ECTS
Lectures
Tutorials
Lecturer
Biomolecules, Cells, and Biomimetic Systems (UE S1-4)
• Physical Chemistry and Molecular Interactions (UE S1-9)
Two written exams
5
20 hours
10 hours
Tristan Albaret
[email protected]
54
Outline
This course introduces the principles underlying common methods of
numerical simulations used in the nanosciences, going from the
atomistic scale to the continuum. It discusses the appropriateness of
atomic scale and continuum modeling.
One of the goals is to understand the principles of the models and
algorithms used in standard codes.
Part 1:
•
Choice of models and methods
•
Overview of problems and scales
•
Atomistic models (with and without electrons)
•
Continuum models versus microscopic and mesoscopic
approaches
•
Classical molecular dynamics: from statistical mechanics to
the algorithms
Part 2:
•
Finite element methods
•
Interpolation functions for the estimating displacements
•
Construction
discretization
•
Governing principles and equations
•
Variational formulation
of
the
elementary
operators
after
Prior knowledge
Continuum Mechanics (UE S1-7)
Bibliography
Evaluation
UE S3-8
ECTS
Lectures
Tutorials
Lecturer
Daan Frenkel, Berend Smit, “Understanding Molecular Simulation:
From Algorithms to Applications”, Academic Press, San Diego,
second edition, 2002
Written exam
2
20 hours
4 hours
Ian O’Connor
[email protected]
55
Outline
This course discusses the consequences of the size reduction to the
nanometer scale for the elementary devices of nanoelectronics: The
complexity and the heterogeneity of these systems requires novel
methods for their conception and integration
•
Established integration techniques
post-processing, chip bonding, system-in-package (SiP), systemon-a-chip (SoC), 3D-stacking, ...
•
Advanced modelization
finite element methods (FEM), coupled FEM, model order
reduction, compact models
•
Conception of elementary nanodevices
logic gates, oscillators, ...
•
Robustness of design
management of manufacturing tolerances (random and
systematic aspects), testing and quality assurance
Prior knowledge
Evaluation
UE S3-9
ECTS
Lectures
Practicals
Lecturer
Introduction to System Design (UE S1-12)
Written exams
2
20 hours
4 hours
Danièle Blanc-Pélissier
[email protected]
Outline
The objective of this course is to familiarize students with the
physical principles of quantum conversion and of the design of solar
cells, from the material to the component, taking into account
economic and environmental constraints. These basics will then
permit students to discuss new concepts and nanotechnological
applications for third generation solar cells.
•
The solar spectrum and the principles of solar cells
•
The ideal photovoltaic converter and its theoretical limits
•
The choice of materials and structures for solar energy
conversion
56
•
Design and characterization of solar cells
•
The fabrication process on a large scale, economic and
environmental concerns
•
Thin film and low cost solar cells: second generation solar cells
(organic and inorganic materials)
•
New concepts for third generation solar cells – using
nanotechnology to improve solar cell efficiency:
•
•
tandem cells
•
hot carrier cells
•
multiple electron-hole pairs per photon
•
impurity photovoltaics and multiband cells
Practical session: the main characterization techniques in
photovoltaics
Prior knowledge
Evaluation
UE S3-10
ECTS
Lectures
Tutorials
Lecturer
• Physics of Semiconductors, part 1 (UE S1-8)
Written exam + 25% practical session assessment
Nanomagnetism and Spintronics
2
20 hours
hours
Matthias Hillenkamp
[email protected]
Outline
The aim of this course is to convey adequate knowledge of
magnetism in solids so that magnetic nanostructures can be
understood. The specific properties of such nanostructers arise from
their large surface-to-volume ratio: increase of the magnetic
moment per atom, increase and modification of the anisotropy,
reversal of non-conventional magnetic moments, etc. An
understanding of these phenomena requires the introduction of new
magnetic states and novel models.
We will furthermore discuss dedicated analysis techniques for
the variety of nanomagnetic materials that can be fabricated, which
have to deal with the small size and quantity of the material, and the
possible applications of magnetic nanostructures.
•
Introduction
•
Recapitulation: basic magnetic systems
57
•
•
•
•
•
Measuring magnetism
•
Magnetic phenomena and simple experiments
•
Sensitive measurements with SQUIDs (superconducting
quantum interference devices)
Magnetism of free ions
•
Orbital magnetic moment and electron spin in atoms and
ions
•
Hund’s rules and the Landé factor
•
Pauli para- and diamagnetism
•
Landau diamagnetism
Magnetism in solids
•
Blockade of orbital momentum, crystal fields, molecular
fields
•
The model of localized electrons
•
The Stoner-Wohlfarth model
•
Exchange interactions: direct, Ruderman-Kittel-KasuyaYosida (RKKY), super exchange
•
Magnetocrystalline anisotropy
•
Magnetic order: ferromagnetic, antiferromagnetic, spin
glasses
•
The model of itinerant electrons, Stoner criterion
Magnetism of nano-objects
•
Zero-dimensional nano-objects: superparamagnetism
•
One-dimensional nano-objects: nanowires, the Ising model
•
Two-dimensional nano-objects: thin magnetic films and
multilayers
•
The quantum Hall effect
•
Gigantic magentoresistance: principle and realization
Magnetic data storage and other applications
•
Principles of storage: analog, magnetic, magneto-optic
•
Storage and retrieval processes
•
Applications of magnetostriction and magnetoelasticity
Bibliograpgy
•
J. M. D. Coey, "Magnetism and Magnetic Materials", Cambridge
University Press, Cambridge, 2010
•
Stephen Blundell, "Magnetism in Condensed Matter", Oxford
University Press, Oxford, 2001
58
Evaluation
Oral exam
UE S3-11
ECTS
Lectures
Tutorials
Lecturer
Nanoelectronics
2
20 hours
hours
Hervé Dumont
[email protected]
Outline
This course deals with nanoelectronic devices whose design goes
beyond the CMOS (complementary metal-oxide-semiconductor)
technology. It discusses different technological approaches and the
architectures that are adequate to complement or replace those that
are presently used in microelectronics.
•
•
•
•
•
Introduction
•
From micro- to nanoelectronics
•
Bottom-up and top-down approaches
Single electron transistors (SETs)
•
Principle of operation
•
Application to electrometers
•
The influence of offset charges
•
Hybrid logic circuits SET-FET
•
Transmission of information by quantum-dot cellular
automata (QCAs)
•
Quantum information processing
Single-electron memory (SEM)
•
Principle of operation
•
Intrgation on silicon
•
Multi-bit storage
Devices based on quantum wires
•
Carbon-nanotube devices
•
Devices based on semiconductor nanowires
•
Examples of reconfigurable logic circuits
Fast devices
•
Tunnel junctions
•
Resonant tunneling
•
Nano-electromechanical devices (NEMs)
59
•
Post-silicon technology
•
Molecular electronics
•
Neural networks
Prior knowledge
Evaluation
UE S3-12
ECTS
Lectures
Tutorials
Lecturer
•
Physics of Semiconductors, part 1 (UE S1-8)
•
written exam
•
graded report and oral presentation on a scientific article
2
17 hours
hours
Jean-Paul Rieu
[email protected]
Outline
This course explores life on the nanometer scale. The two aspects of
nanotechnology in life sciences are discussed:
•
fundamental research – probing the properties of cells on
increasingly smaller length scales, cellular biomechanics
•
biomedical applications – novel nanostructured biomaterials,
fine-tuned to modulate the cellular response
•
•
Cellular structure and function
•
The cellular architecture
•
membrane, cytoskeleton, extracellular matrix, adhesion
proteins (cell/cell, cell/substrate)
•
Principal mechanics of the cell
•
division (mitosis), movement (immune response,
development, regeneration), cohesion and preservation of
tissue
•
The cell as an integrated multi-sensor
•
membrane receptors for chemical signals (endocytosis,
exocytosis, phagocytosis), mechanical stimuli (blood flow,
compression, cell/cell interaction), topological stimuli and
the extracellular network (proliferation, apoptosis,
differentiation)
Bio-, micro-, and nanotechnolgy to study the mechanical
60
properties of cells
•
Evaluation
UE S2-5
ECTS
Lectures
Tutorials
Lecturer
•
Stress and deformation, cellular rheology
•
extensional rheometry, optical and magnetic tweezers,
Brownian motion, aspiration into mircopipettes
•
Measuring cellular adhesion
•
ablation experiments, milli- and microfluidic flow chambers,
atomic force microscopy (AFM)
•
Hydrodynamic properties and capillary forces in cellular
aggregates
•
determination of cellular contractility, deformable
substrates, utilization of physical forces (hydrodynamic,
magnetic, ...) to counteract motion, contractile drugs,
visulaization
of
mechanotransducer-complexes
by
fluorescence microscopy
Supports and 2D/3D matrices for tissue engineering
•
Bulk biomaterials and artificial tissue
•
Nanostructured materials,
microfluidic devices
•
Intelligent scaffolds
•
Application examples and case studies
adhesive
templates,
and
Prior knowledge
Biomolecules, Cells, and Biomimetic Systems (UE S1-4, for nonbiologists)
Bibliography project
1
Florian Kulzer and Magali Paner-Goutorbe
[email protected] – [email protected]
Outline
Evaluation
The project of the second year is reserved for a literature survey,
allowing our students to prepare for their Master thesis projects.
graded project reports and/or presentations
UE S3-15
ECTS
Intellectual Property
2
61
Lectures
Tutorials
Lecturer
20 hours
hours
Carole Bremeersch
[email protected]
Outline
This course introduces the main aspects of industrial property, that is
to say, intellectual property rights that protect the results of
industrial activity, such as patents, trademarks, utility models, and
protected designs. The main focus is on patent protection at the
national and international level, on the importance of industrial
property as a resource of an enterprise, and on its role in project
management.
•
•
•
•
•
Intellectual property
•
Structures and professions in industrial property
•
Definitions: intellectual property and industrial property
•
elements of industrial property: patents, trademarks,
designs, and utility models
Patents
•
Definitions, conditions, and exclusions of patentability
•
Structure and costs of patent applications
•
Statistics on pantents
•
The Soleau envelope
•
Valorization of patents, licensing
•
Patent protection, infringement and sanctions
International protection
•
Priority of invention
•
National patents
•
European patents
•
The Patent Cooperation Treaty (PCT)
•
Criteria of patentability in Europe and the United States
Patent search
•
Search for prior art
•
Exploitation
•
Technology scouting and competitive intelligence
•
Patent databases
Hot topics
62
•
Evaluation
UE S4-1
ECTS
Lectures
Tutorials
Lecturer
Software patents
• Patents on living organisms
Multiple-choice exam
Master Thesis Research Project
30
[email protected]
Outline
The final Master thesis project with duration of five to six months can
be conducted in an academic research group or in an industrial
laboratory, anywhere in France or abroad.
Example of previous Master Thesis Projects
•
Realization and optimization of the top contact of a 3D
transisitor based on silicon nanowire channels (CEA, Grenoble,
France)
•
Biopolymer nanocomposite fibers for tissue engineering and
scaffolding (Institute of Nanoscience for Medicine, University of
Oxford, UK)
•
Electronics with single electrons: analytical modeling and
characterization (Lyon Institute of Nanotechnology, France)
•
Development of an electrodeposition process (Laboratory for
Nanotechnology, Viet Nam National University, Ho Chi Minh
City)
•
Molecular resists based on C60 for extreme-UV lithography
(Nanoscale Physics Research Laboratory, University of
Birmingham, UK)
•
Laser-assisted fabrication of carbon nanotubes and graphene
(Mechanosynthesis Group, University of Michigan, USA)
•
Development of a laser segmentation process for thin-film
silicon photovoltaic modules (R&D department, Total S.A.,
Palaiseau, France)
•
Fabrication and characterization of nanostructures based on
mass-selected aggregates (LASIM, Université Claude Bernard –
Lyon 1, France)
•
Characterization of diodes for IR detectors (SAGEM Défense
Sécurité, Paris, France)
63
Evaluation
•
Theory of spin transfer torques in magnetic-insulator-based
tunnel junctions (Spintec, CEA Grenoble, France)
•
Development of lab-on-a-chip biosensors based on surface
plasmon resonance and microcalorimetry (Centre de Recherche
en Nanofabrication et en Nanocaractérisation, Université de
Sherbrooke, Canada)
•
A planar high-density network of high-Tc superconducting
Josephson junctions (Thales Research and Technology,
Palaiseau, France)
•
Design and modeling of a two-dimensional photonic crystal
cavity (CINTRA, Nanyang Technological University, Singapore)
•
assessment of project supervisor (1/3)
•
Master thesis and defense in front of a jury (2/3)
64
RESEARCH LABORATORIES
65
Lyon Institute of Nanotechnology (INL)
The Lyon Institute of Nanotechnology (INL) is a fundamental and applied research laboratory in
the field of micro- and nano-technology. Its mission is to conduct research on the development
of fully-fledged technologies for a broad range of application sectors (semiconductors and
micro-electronics, telecoms, energy, health, biology, industrial control, defence, environment).
•
•
•
•
•
Research is organised around four main topics (organized in departments):
Functional Materials
Electronics
Photonics and Photovoltaics
Biotechnology and Health
The research programs draw on the resources of the Lyon-based Nanolyon technology
platform. A transversal research operation is specifically dedicated to the development of
Nanocharacterization tools and techniques.
The laboratory is situated on the campuses of École Centrale de Lyon, INSA Lyon, University of
Lyon 1 and CPE.
http://inl.cnrs.fr/
Ecole Centrale de Lyon
Building F7
36, avenue Guy de Collongue - 69134
ECULLY
Public transport access: bus 3, 4 or 55,
station “Campus Lyon Ouest”
INSA de Lyon
Domaine scientifique de la DOUA
Building Blaise Pascal
7, avenue Jean Capelle
69621 VILLEURBANNE
Université Claude Bernard Lyon 1
Building Léon Brillouin
6, rue Ampère
69621 VILLEURBANNE
Public transport access: Tramway (T1) going
to "IUT Feyssine
66
Institut Lumière Matière (ILM)
The Institut Lumière Matière gathers about 300 people working in 21 research teams covering
areas of physics and chemistry going from the study of atoms and molecules, through
nanosystems and nanomaterials up to material science and the study of macroscopic systems
and their laws. The research work is both experimental and theoretical, and can be
fundamental or applied and also within collaboration with industrial partners. The elaboration
and study of nanosystems and nanomaterials is one of the main topics of the Institut Lumière
Matière, including applications in material science, optics, devices, biosystems, nanofluidcs,
environment, energy … With 10 experimental platforms and 2 theory groups, the Institut
Lumière Matière offers a wide range of opportunities for students willing to get in touch with
the latest advances in science and technology.
The Institut Lumière Matière is opening on January 2013 from the fusion of three laboratories
from the University Lyon 1 and CNRS:
LPMCN, http://www-lpmcn.univ-lyon1.fr
LASIM, http://www-lasim.univ-lyon1.fr
LPCML, http://pcml.univ-lyon1.fr
Addresses:
The three laboratories are located on the :
« Domaine Scientifique de la Doua » - UCB Lyon 1 - 69622 Villeurbanne
Public transport access: Tramway (T1) going to "IUT Feyssine", station "Université Lyon 1”
LPMCN
Building Léon Brillouin - 43 Boulevard du 11 Novembre 1918
LASIM and LPCML
Building Alfred Kastler - 10 rue Ada Byron
67
Laboratoire de Physique de la Matière Condensée et
Nanostructures (LPMCN)
The laboratory was created in 1970 in the context of strong development of the physics of
condensed matter for the synthesis of new materials, studies of their structures and properties
at different scales and their applications. Since its inception, the lab has evolved and adapted to
the growing demand in the areas of solid materials and soft matter, thus contributing
significantly to the advancement of fundamental knowledge and some potential applications in
these areas.
Currently, the lab focuses on studies and developments of solid materials and soft matter, by
way of experimental and theoretical associated with a strong emphasis to the low-dimensional
systems that involve new concepts of nano physics and nanotechnology
The scientific organization is structured around four research themes:
•
Theme I: Liquids and Interfaces
•
Theme II: Functional Nanostructures, Nanomaterials
•
Theme III: nanosources and Nanotechnology
•
Theme IV: Theory and Modeling
The total is 125 people, including 75 permanent (Researchers and Technicians), about 50 PhD
students and postdoctoral researchers, and few visitors.
In parallel to research activities, the lab members are actively involved in education and
training in the various cycles of the University (Bachelor Science and Technology, Master of
Physics and Technology), and in the engineering school (ISTIL) and IUT that are part of the
university and the Magisterium of Materials Science, common at the University Claude Bernard
Lyon 1 and Ecole Normale Superieure de Lyon.
To host PhD, the laboratory is associated with the Graduate School of Physics and Astrophysics
of Lyon and the Lyon Graduate School of Materials.
http://www-lpmcn.univ-lyon1.fr/
68
Materials: Engineering and Science (MATEIS)
MATEIS optimises the operational properties of existing structural materials, but also develops
new ones. The four material classes: metals, ceramics, polymers, composites, are studied from
different points of view: processing, microstructural characterization, in situ observation of
thermomechanical or electrochemical transformations, non destructive characterisation,
microstructure-based modelling.
The challenges are to understand:
• The relations between manufacturing parameters and microstructure (defects at the atomic
or molecular scale, phase arrangement -crystalline, amorphous-, defects linked to processing microcavities, decohesion-…)
• The relations between microstructures and macroscopic behaviour measured by various
techniques (mechanical, electrochemical, calorimetric, dielectric, acoustic…)
• The evolution of these microstructures in operation (phase transitions, corrosion, damage
modes…)
Societal fields of application are transportation (downweighting of airplane and cars), energy
production and storage (safety in powerplants and batteries, ), materials for environment
(ramm earth construction, outer thermal barriers), materials for health (protheses,
nanoparticles for diagnosis ans therapy).
The lab gathers more than 60 scientists, either academic staff (INSA) or full time researchers
(CNRS), the same number of PhD students, 25 engineers, technicians, secretaries… in six teams:
Metals and Alloys / Ceramics and Composites / Polymers, Glasses, Heterogeneous Materials /
Biomaterials and Biological Interactions / Structures, Nano-, Microstructures / Interface
Reactivity and Corrosion.
http://mateis.insa-lyon.fr/
Address:
INSA de Lyon - Building Blaise Pascal, 5th floor
7, Avenue Jean Capelle - 69621 VILLEURBANNE
Public transport access: Tramway (T1) going to "IUT Feyssine , station "INSA-Einstein"
69
APPENDICES
70
Maps of the campus “Domaine scientifique de la DOUA”
INSA de Lyon and UCB Lyon 1 are both located on this campus, north east of Lyon. More
detailed views of the INSA de Lyon map (east half part) and the UCB Lyon map (west half part)
are respectively displayed pages 70 and 71.
71
72
73
Map of Ecole Centrale de Lyon
74
Map of Lyon’s subway an d tramway network
75
http://master-nano.universite-lyon.fr/
76
The NSE Master is financially supported by the PALSE program
(Programme Avenir Lyon Saint-Etienne, French government)
77
Magali Phaner-Goutorbe
Institut des Nanotechnologies de Lyon (INL)
Site École Centrale de Lyon, Batiment F7
36, avenue Guy de Collongues
69134 Écully cedex France
Tel: +33 (0)4 72 18 62 32
email: [email protected]
MATEIS, INSA de Lyon
Bâtiment Blaise Pascal, 5ème étage
7, avenue Jean Capelle
69621 Villeurbanne cedex France
Tel: +33 (0)4 72 43 83 82
Catherine Journet-Gautier
Laboratoire des Multimatériaux et Interfaces (UMR 5615)
Université Claude Bernard - Lyon 1
Bâtiment Chevreul, 2ème étage
6, rue Victor Grignard
69622 Villeurbanne cedex France
Tel: +33 (0)4 72 43 35 64
[email protected]
http://master-nano.universite-lyon.fr/

Master NSE - Presentation

Transcription

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