2.12.15 (694)

Cours scientifiques - PHY_54402_EP : Practical Photovoltaics : From Laboratory to Industry

Descriptif

This course makes the link between the fundamental physics of photovoltaic devices and the practical reality of selling PV-generated kWh. It is composed of two parts: (1) an intensive laboratory component (24 hours spent in a research lab) giving students the opportunity to fabricate and test photovoltaic devices in a research environment, and (2) three lectures given by our industrial partners from Total, concerning the PV industry.

Objectifs pédagogiques

After taking this course, the student should be able to: - **Laboratory Component:** - Demonstrate experimental familiarity with critical elements of photovoltaic device fabrication or advanced material/device characterization - Describe their own laboratory research result in the field of photovoltaics - Apply their knowledge of the experimental design and methods particular to PV to defend or moderate their results. - Identify, use and weight the physical parameters in a photovoltaic system and critical output metrics - **Industrial Lecture Component** - Describe the industrial steps to produce photovoltaic modules - Identify usage of photovoltaics in appropriate applications - Have a global vision of the photovoltaics market, value chain and main players - Quantitatively evaluate PV system costs and PV electricity costs - Take into account safety - Carry scientific messages on the environmental impact of photovoltaics

30 heures en présentiel

Diplôme(s) concerné(s)

Parcours de rattachement

Format des notes

Numérique sur 20

Programme détaillé

**Introductory Lecture** \- Overview of laboratory options and specialization selection (2hrs) **Laboratory Sessions** **24 hours total: 6 x 4 hours each, spent in laboratory** Students focus on **one** of many topics concerning PV technologies (subjects change each year) - Standalone PV Systems (GEEPS) - Data Analysis for PV (SIRTA) - Advanced characterization techniques (GEEPS) - III-V materials and characterization (C2N) - Perovskite Solar Cells (LPICM) - Crystalline Silicon Heterojunction Solar Cells (LPICM) - More with each year **Industrial Lectures** **I: PV industry, market and economy** **The photovoltaic industry – an overview** \- Historical development of PV, Applications, Technology, Markets / economy **Reminder of basics and metrics of PV** \- PV systems, efficiency and Watt peak, other physical parameters, Performance: cells to module, Sun and intermittency **Snapshot of current industry and market** \- Market and trends, Actors : location, technology, structure \- An idea of current costs and performances **Industrial production of PV** \- Production line, Silicon, Ingot, Wafer, Cells, Modules, \- Thin films (TF-Si, CdTe, CIGS), III-V, OPV, DSC Production management, purchasing \- Norms and certifications, Structure of costs in production, Financing / capitalization, Main actors **Electricity production with PV projects** \- PV system, Structure, type, space, Producible : management of losses, simulation, Watt peak to kWh to €, Project development \- Structure of costs, Levelized Cost of Electricty (LCOE), Economical schemes / Finances, Grid parity, FiT, Portfolio, Tax credit / subsidies, Self-consumption, Main actors **HSE** \- Industrial safety, Installation safety, Environmental impact of PV **Industrial Lecture II: Industrial R&D programs and innovation** 1. Introduction: Research & Development vs Innovation 2. R&D as a segment of an industrial activity b. Innovation as a state of mind in a Company c. Disruptive innovation: ‘what (could) make great companies fail? 3. Research & Development in Solar PV: several ten years of progress in cell efficiency 4. NREL compilation of hero (certified) cells: b. Outstanding industrial (and R&D) players: who drives performance up? c. Top ten research centers around the world 5. Different PV technologies addressing different markets: State-of-the-art / challenges / perspectives 6. Crystalline Si: an old lady? (including purification/ingoting/wafering/cell conversion) 7. mc-Si 8. c-Si iii. Alternative technologies: ribbons, smart-cutting technologies... 1. Thin films: 2. CdTe 3. a-Si, pm-Si, μc-Si, pc-Si... iii. CI(G)S & CZTS 1. Organic / hybrids 2. Printed polymers: bilayer, bulk heterojunction 3. Small molecules: evaporation or printing technologies? iii. Dye sensitized structures 1. III-V semiconductors: 2. Single-junctions 3. Multijunction 4. The nano and quantum tool box: 5. Nano wires 6. Quantum dots iii. Intermediate band structures 4. Transverse activities: a ‘must’ to address the complete value chain: 5. Modules and systems 6. Reverse engineering 7. Specific issues to PV industry as seen from R&D: 8. Raw materials b. Time to market: from theoretical concept to lab device... to industry and market 9. Industrial transfer: scale-up, control control control, stage-gate procedures d. R&D as a support to production Environmental and EHS issues

Mots clés

laboratory

Méthodes pédagogiques

research laboratory sessions (24 hrs)
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