"Os Avanços na P&D em Células Solares Orgânicas no Brasil"



Similar documents
Materials for Organic Electronic. Jeremy Burroughes FRS FREng

Organic semiconductors

OLED display. Ying Cao

High Efficiency Black Polymer Solar Cells November 2012 Annual Report

Light management for photovoltaics. Ando Kuypers, TNO Program manager Solar

Magneto-Optical Studies on Internal Photovoltaic Processes in Organic Solar Cells

Chapter 2 Solution-Processed Organic Photovoltaics

Project 2B Building a Solar Cell (2): Solar Cell Performance

Low-Cost Wireless Sensor Networks for Building Applications Using Novel Materials and Energy-Efficient Communications Scheme. Teja Kuruganti Ph.D.

The Status and Outlook for the Photovoltaics Industry. David E. Carlson March 14, 2006

Artificial Photosynthesis: A Workshop in Solar Cell Design

POLYMER BASED PHOTOVOLTAICS

Microstockage d énergie Les dernières avancées. S. Martin (CEA-LITEN / LCMS Grenoble)

Laboratory #3 Guide: Optical and Electrical Properties of Transparent Conductors -- September 23, 2014

Introduction to OLED technology 1. General characteristics

- SOLAR ENERGY WHITE PAPER - WHERE WE ARE NOW AND WHAT S AHEAD

Lecture 15 - application of solid state materials solar cells and photovoltaics. Copying Nature... Anoxygenic photosynthesis in purple bacteria

Light management for photovoltaics using surface nanostructures

Esnek Güneş Pilleri ve Fotovoltaik Tekstiller

DYESOL: PATHWAY TO MASS MANUFACTURE. Annual General Meeting Investor Presentation - 28 November 2013

Solar Cell Parameters and Equivalent Circuit

Materials and Technologies for Renewable Energy. ENEA R&D activities on PV. Anna De Lillo

DOSIMETRIC CHARACTERIZATION OF DYED PMMA SOLID DOSIMETERS FOR GAMMA RADIATION

Effect of 2D delocalization on charge. R. Österbacka

Microstockage d énergie Les dernières avancées. S. Martin (CEA-LITEN / Grenoble)

New materials for PV Mirjam Theelen

ELG4126: Photovoltaic Materials. Based Partially on Renewable and Efficient Electric Power System, Gilbert M. Masters, Wiely

Photovoltaic Research in AIST. Koichi Sakuta Research Center for Photovoltaics, AIST

Solar Photovoltaic (PV) Cells

Ultra-high Barrier Plastic. MSE5420 Flexible Electronics Martin Yan, GE Global Research

NANO SILICON DOTS EMBEDDED SIO 2 /SIO 2 MULTILAYERS FOR PV HIGH EFFICIENCY APPLICATION

2 nd Israeli-German Conference on the Commercialization of Future Technologies. Organic Photovoltaics turn a great idea into a great company

Improving Printability of Functional Materials by. Laboratory of Paper Coating and Converting Martti Toivakka and Jouko Peltonen

High Open Circuit Voltage of MQW Amorphous Silicon Photovoltaic Structures

Spectral Characterisation of Photovoltaic Devices Technical Note

Flexible Mehrlagen-Schaltungen in Dünnschichttechnik:

Introduction OLEDs OTFTs OPVC Summary. Organic Electronics. Felix Buth. Walter Schottky Institut, TU München. Joint Advanced Student School 2008

Solar Energy Engineering

A metal-free polymeric photocatalyst for hydrogen production from water under visible light

Laserbearbeitung von dünnen Schichten auf Rolle-zu-Rolle-Anlagen

Your ideas. Our technologies.

Neal O Hara. Business Development Manager

2 Absorbing Solar Energy

Searching New Materials for Energy Conversion and Energy Storage

OLED - Technologie der Zukunft

Solid State Detectors = Semi-Conductor based Detectors

Electrophoretic Gold Nanoparticles Depostion On Carbon Nanotubes For NO 2 Sensors


Wafer-based silicon PV technology Status, innovations and outlook

Arizona Institute for Renewable Energy & the Solar Power Laboratories

Paper Electronics. Martti Toivakka. Laboratory of Paper Coating and Converting Center for Functional Materials Åbo Akademi University

Solar Energy. Solar Energy range. NSG TEC Pilkington Microwhite Pilkington Optiwhite Pilkington Sunplus

Basic principles and mechanisms of NSOM; Different scanning modes and systems of NSOM; General applications and advantages of NSOM.

Building Integrated Photovoltaic (BIPV)

Inline & Integrated Manufacturing Equipment. Marcel Grooten CEO OTB Engineering

Supporting Information

GREEN NANOTECHNOLOGY. Geoffrey. Energy in the Built Environment. Solutions for Sustainability and. B. Smith Claes G. Granqvist.

IV.H.2 New York State Hi-Way Initiative*

IXOLAR TM High Efficiency SolarMD.

Chemical Synthesis. Overview. Chemical Synthesis of Nanocrystals. Self-Assembly of Nanocrystals. Example: Cu 146 Se 73 (PPh 3 ) 30

R&D from material preparation up to next generation manufacturing: opportunities for local companies

Photovoltaic Power: Science and Technology Fundamentals

Soft lithography for diffractive microfabrications

OPTIMIZING OF THERMAL EVAPORATION PROCESS COMPARED TO MAGNETRON SPUTTERING FOR FABRICATION OF TITANIA QUANTUM DOTS

INKJET PENETRATES INDUSTRIAL APPLICATIONS & MARKETS

GEOMETRIC CHARACTERIZATION AND OPTIMIZATION OF 3D ORGANIC FLEXIBLE SOLAR CELLS. A Thesis. Presented to the. Faculty of. San Diego State University

Table of Contents PART 1 WINDOW SELECTION GUIDE. Window and Door Selection Guide

Long-term performance of photovoltaic modules Artur Skoczek

For Touch Panel and LCD Sputtering/PECVD/ Wet Processing

Silicon Wafer Solar Cells

Projects and R&D activities

Flexible optical system for large-area LED luminaires with excellent light uniformity and efficiency

OLED/PLED PROCESS TOOLS

Economic Mass Producible Mirror Panels for Solar Concentrators

Optical Disc and Solar Annual Press/Analyst Conference - March 26, 2010

3M Products for Solar Energy. Designed for efficiency. Built to last.

How compact discs are made

Chapter 8. Exciton solar cells ORGANIC SOLAR CELLS

Rosalinda Inguantaa*, Emanuele Scadutoa, Patrizia Livrerib, Salvatore Piazzaa, Carmelo Sunseria

Optical Hyperdoping: Transforming Semiconductor Band Structure for Solar Energy Harvesting

Simple and scalable fabrication approaches of Nanophotonic structures for PV

Understanding Organic Photovoltaic Cells: Electrode, Nanostructure, Reliability, and Performance. Myung-Su Kim

Electroluminescent (EL) Parallel Panels

The Current status of Korean silicon photovoltaic industry and market Sangwook Park LG Electronics Inc.

Focused Ion beam nanopatterning: potential application in photovoltaics

Scientific Exchange Program

1. INTRODUCTION ABSTRACT

Vacuum Evaporation Recap

Spectroscopic Ellipsometry:

Operational experienced of an 8.64 kwp grid-connected PV array

Ricerca su celle fotovoltaiche innovative

Graphene a material for the future

UNIT I: INTRFERENCE & DIFFRACTION Div. B Div. D Div. F INTRFERENCE

For the modifications listed below, the Qualification Approval tests in IEC and IEC 61646, shall be used as a guideline by the assessor:

Paint it cool! Pigments for solar heat management in paints

Exciton dissociation in solar cells:

Transcription:

"Os Avanços na P&D em Células Solares Orgânicas no Brasil" IC Packaging Division Fernando Ely, PhD InovaFV, Campinas, 2013

1. Outline 3 rd Gen. PV (OPV, DSSC) Advantages Techical Issues OPV and DSSC Market Market Outlook Applications Players Brazilian PD&I in OPV/DSSC Universities CTI Startups

3rd Generation of Photovoltaics Organic Photovoltaic - OPV Light Substrate Anode holes LUMO HOMO DONATOR (p) Electron transfer absorption LUMO HOMO ACCEPTOR (n) Cathode electrons OPV Module Source: Konarka

3rd Generation of Photovoltaics Dye Sensitized Solar Cell (DSSC) Light DSSC Module Source: wikepedia (2009). Source: G24 Innovations (2008). DSSC cells involve a dye that absorbs visible light and injects an electron into the conduction band of an inorganic semionductor such as TiO 2. The oxidised dye is re-reduced by an electrolyte giving the required separation of the electron and the hole.

3rd Generation of Photovoltaics Advantages Technical Issues Approaches DSSC Organic PV R2R processing Low price Plastic (flexible, new form factors, lightweight, robust) Semitransparent Colored (tinted) Incidence angleindependent Lifetime Efficiency Reproducibility from module to module DSSC Glass frit sealing (Fraunhofer Inst., Germany) Quasi-solid electrolyte (SolarPrint, Ireland) Nanomaterials (Ohio State Univ., USA, Queensland Univ., Australia) Organic PV O 2 /H 2 O Barriers (Vitex Syst. and 3M, USA) Optical Spacers (UC-Sta. Barbara, USA) Metallic grid (GE, USA) Table 1. Technology transition for module efficiencies Technology 2005 2010 2015 Organic tandem SC 6% 9% 14% DSSC 4% 7% 12% Source: K.Derbyshire. The Future of Photovoltaics to 2015 (2008).

OPV and DSSC Market Portable Power Building Integrated PV - BIPV Electronics charger Fenestration windows, sky-light, spandrels Façade Curtain wall, other building claddings Outdoor events Source: Peng Wang and Michael Gräztel Source: Konarka and Arch Aluminum & Glass

OPV and DSSC Players OPV Players Konarka Global Photonics Heliatek Country: USA and Germany Technology: R2R Plastic OPV Market: BIPV (joint with Arch Aluminum & Glass) and CE (consuming electronics) Goal: went to bankruptcy 2012 sould out to Belectric Country: United States Technology: Flexible Small molecule OPV by evaporation Market: BIPV and CE Goal: no data Country: Germany Technology: tandem cell by R2R thermal evaporation Market: BIPV and CE Goal: setup production team 2013 R2R mass production Flexible OPV prototype panel World efficiency record 12%

OPV and DSSC Players DSSC Players Dye Sol G24 Innovations Limited Fraunhofer Institute Country: Autralia Technology: Screen printing to produce DSSC on glass and Steel Market: BIPV (Façade) Goal: in production Country: Wales, UK Technology: R2R Plastic DSSC Market: at first CE (consuming electronics) but has potential for BIPV Goal: sold out in Dec 12 Country: Germany Technology: Screen printing to produce DSSC on glass Market: BIPV (Façade) Goal: joint development with German industry DSSC BIPV panel DSSC based charging multi adapter DSSC Façade BIPV panel prototype

Brazilian PD&I in OPV/DSSC Universities INCT INEO Subprojeto 2: Desenvolvimento de células solares híbridas orgânicas/inorgânicas contendo nanopartículas e nanotubos (7 grupos - IFSC- USP; IQ-Unicamp; INMETRO; Puc-Rio; UFPR; UFMG; UFPI) PD&I OPV/DSSC CTI Renato Archer INCT NAMITEC A4.4: Fotovoltaicos Alternativos e Eletrônica Orgânica Startups DSSC: Tezca (Unicamp) OPV: Flexsolar (IAP Fraunhofer)

CTI s Activities OPV and DSSC Aceptor (n) Doador (p) Materiais e Nanomateriais Técnicas de gravação/ deposição Equipamentos (R2R) PCBM ~ 6.5 % (1 cm 2 ) P3HT regioregular OPV DSSC Células Solares Flexíveis Células Solares Flexíveis OPV DSSC Eficiência alvo ~ 9 % (120 mm 2 ) Fabricação de Protótipos e Transferência de Tecnologia Investimentos (2007-2012) Fapesp: R$ 480K CNPq: R$ 130K Finep: R$ 1.000K MCTI: R$ 400K

CTI s Activities Deposition Methods Inkjetting Spray R2R T-NIL

CTI s Activities DOD Piezo Inkjet Critical Parameters Substrate 1. Ink Formulation a. Solvent(s) b. Solid content (2-5%) Deposition conditions Ink Formulation Postprocessing c. Additives ( and ) 2. Deposition Conditions a. Waveform b. Cartridge temp. c. Plate/substrate temp. d. Linear velocity (mm/s) 3. Substrate characteristics a. Roughness b. Surface energy (hydrophobic/hydrophilic) 4. Post-processing a. Annealing conditions (heating medium, time, temp, etc.)

CTI s Activities Table. POM images of PEDOT:PSS deposited by IJP using different PEDOT inks in SU8 wells on ITO after surface treatment Ely, F. et. al.synthetic Metals, 161(19), p. 2129-2134, 2011.

CTI s Activities Goal: Production of Flexible Transparent Conductive Electrode (TCE) to Replace ITO Conducting Polymer: PEDOT SWCNT Metallic nanowires Handheld airbrush Versus Focused ultrasonic nozzle

CTI s Activities PEDOT:PSS Table 1. EG chemical post-treatment effect on conductivity and roughness. Spray T Before EG After EG system ( C) (S.cm -1 ) R rms (nm) (S.cm -1 ) R rms (nm) Airbrush 75 96.1 41.7 432.9 39.4 Ultrasonic 75 310.0 16.3 398.0 28.2 Airbrush 100 125.3 68.9 280.1 33.8 Ultrasonic 100 268.0 26.2 415.0 31.9 Airbrush 125 102.3 29.6 429.2 48.2 Ultrasonic 125 266.0 21.4 336.0 21.8 Airbrush 150 191.2 37.9 284.1 43.5 Ultrasonic 150 315.0 23.2 453.0 52.2

CTI s Activities Sprayed PEDOT:PSS for Plastics AC Electroluminescent Devices Screen-printed layers CIE coordenates = 7.59 lm/w (100V @400Hz) Luminance x V Power x V

CTI s Activities Single walled Carbon Nanotube networks Table 2. Electrical and Optical characterization of the SWNT films prepared with baking and acid treatment. SWCNT by Ultrasonic spraying AFM images

CTI s Activities CTI s Customized T-NIL System Continuous T-NIL Pressure sensing Control software Printing rollers Control panel

CTI s Activities Ni Rigid Mold Fabrication Example: Ni mold w/ Microstructures

CTI s Activities Inkjet Printed Quantum Dot-OPV Active Layer CdSe QD + P3MET N N N N CdSe N N N N + O O OCH 3 * S * n P3MET PET ITO PEDOT P3MET/ CdSe QD Al/Ag 37% v/v of CdSe QD 50% v/v of CdSe QD AFM for the composites CdSe:Py/P3MET spin-coated films on Si substrate Indicative of phase separation Device on plastic after printing and electrode deposition. PCE = 0.27 % (AM 1.5) Out of glove-box!

CTI s Activities LC additive effect in Fullerene-OPV Goal: Liquid crystalline (LC) material as functional additive to lead higher charge carrier mobility and facilitate the electron-hole pair separation. N N O H 19 C 9 O O 2 N C 9 H 19 NPEOXA O PCE = 0.015 % (AM 1.5G)

I / A Absorbance (a.u.) CTI s Activities New active layer PCDTBT-Fullerene-OPV Aceptor (n) PC 71 BM * Donor (p) N C 8 H 17 C 8 H 17 S S N N PCDTBT S n 180.0µ 120.0µ 60.0µ Cyclic Voltammetry - PCDTBT blank film PCDTBT E oxi (Fc/Fc + )= 0.93-0.2 = 0.73 V HOMO = 5.63 ev LUMO = 3.90 ev E g = 5.63-3.90 = 1.73 ev 0.20 0.16 0.12 0.08 UV-Vis PCDTBT:PC71BM (1:2.6) PCDTBT:PC 70 BM on glass/zno np 0.0-60.0µ E red (Fc/Fc + )= -1.0-0.2 = -1.2 V -2-1 0 1 2 E / V vs Pt 0.04 DCB:CB @ 7000 rpm DCB:CB @ 5000 rpm DCB:CB @ 3000 rpm 0.00 350 400 450 500 550 600 650 700 Wavelength (nm)

Current (A) CTI s Activities New active layer PCDTBT-Fullerene-OPV DCB:CB (3:1) @7000rpm 450µ w/zno Nanoparticles Buffer PCDTBT:PC70BM/ZnO np - (4D) 300µ Dark Ligth 150µ 0-0.2 0.0 0.2 0.4 0.6-150µ Cell 4D J sc = 1.25 ma/cm 2-300µ V oc = 200.6 mv Voltage (V) FF = 0.31 PCE = 0.1%

Brazilian Startups Flexsolar Células Solares From Lab to Fab: Development of an industrial process for the commercialization of organic solution processed Photovoltaic systems on a roll-to-roll pilot line! Pilot Line at Fraunhofer IAP Collaboration with MBraun Sheet-to-Sheet with 15 x 15cm Inkjet, Slot Die, ALD, Encapsulation 3 Million invest Pilot Line Flexsolar Developed in 4 years with company 3D Micromac 4 printing/coating stations Lamination and Test modules Next step: 120 cm web width

Brazilian Startups Flexsolar Células Solares Fraunhofer IAP Police jacket with textile integrated OPV and OLED Bus stop with integrated OPV and OLED modules

Brazilian Startups Tezca Células Solares Startup established since Nov. 2008 1 Office 4 laboratories Currently located at Ciatec Incubator Campinas, SP, Brazil Team of 5 members Main goal: TCO-free dye-sensitized solar cells based solely on flexible foils TCO ~ 45% Dye ~ 9% (after scaling up)

Brazilian Startups Tezca Células Solares SS DSSC cell from Tezca

Summary 3 rd gen. solar cells represent a great opportunity for RD&I with huge number of potential applications. OPV and DSSC are attactive for BIPV because the flexibility, semitransparency, low cost and colour option. International cooperation and networks are essential to increase lifetime and efficiency for widespread adoption.

Obrigado! Fernando Ely, PhD Tecnologista pleno III Full Technologist fernando.ely@cti.gov.br Tel.: +55 19 3746-6229 - Fax: +55 19 3746-6028 www.cti.gov.br