Small-molecule OPV: From the Lab to Roll-to-Roll Production. Company Presentation 1

Similar documents
Solliance. Perovskite based PV (PSC) Program. TKI Urban Energy Days l e d b y i m e c, E C N a n d T N O

Deliverable D1.3 Demonstration of patterning processes allowing to

CIGS und Perowskit Solarzellenforschung an der Empa

What will it take for organic solar cells to be competitive?

High Laser Pulse Repetition Rate Ablation of the CIGS Thin-Film Solar Cells

Mesoporous titanium dioxide electrolyte bulk heterojunction

Synthesis Breakout. Overarching Issues

Plastic Electronics. Joaquim Puigdollers.

Lecture 5 Junction characterisation

Beatrice Beyer ISFOE 2014 Thessaloniki, Greece

Supplementary Figure 1. Cross-section SEM image of the polymer scaffold perovskite film using MAI:PbI 2 =1:1 in DMF solvent on the FTO/glass

Electron Beam Curable Varnishes. Rapid Processing of Planarization Layers on Polymer Webs

2008 Solar Annual Review Meeting

Photovoltaic cell and module physics and technology

High Efficiency Triple-Junction Solar Cells Employing Biomimetic Antireflective Structures

Atmospheric pressure Plasma Enhanced CVD for large area deposition of TiO 2-x electron transport layers for PV. Heather M. Yates

Marcus Klein, SURAGUS GmbH

Development of active inks for organic photovoltaics: state-of-the-art and perspectives

Supplementary Figure 3. Transmission spectrum of Glass/ITO substrate.

Organic Electronic Devices

(Co-PIs-Mark Brongersma, Yi Cui, Shanhui Fan) Stanford University. GCEP Research Symposium 2013 Stanford, CA October 9, 2013

Quantum Dots for Advanced Research and Devices

Influence of Hot Spot Heating on Stability of. Conversion Efficiency of ~14%

Deliverable D2.1 Report on measurement and stability testing protocols

Forming Gradient Multilayer (GML) Nano Films for Photovoltaic and Energy Storage Applications

Optical Spectroscopies of Thin Films and Interfaces. Dietrich R. T. Zahn Institut für Physik, Technische Universität Chemnitz, Germany

Inorganic Nanoparticles & Inks

Real-time and in-line Optical monitoring of Functional Nano-Layer Deposition on Flexible Polymeric Substrates

Investigation of Thin Film Solar Cells on CdS/CdTe Base with Different Back Contacts

Tomorrow s cities: active elements and architecture

Chapter 7. Solar Cell

Continuous, Highly Flexible and Transparent. Graphene Films by Chemical Vapor Deposition for. Organic Photovoltaics

Supporting Information: Poly(dimethylsiloxane) Stamp Coated with a. Low-Surface-Energy, Diffusion-Blocking,

26% PK/silicon tandem solar cell with 1 cm 2 area H2020-LCE

Planar Organic Photovoltaic Device. Saiful I. Khondaker

Optimization of the Properties of the Back Surface Field of a Cu(In,Ga)Se 2 Thin Film Solar Cell

Photovoltaic cell and module physics and technology. Vitezslav Benda, Prof Czech Technical University in Prague

Organic solar cells with inverted layer sequence incorporating optical spacers - simulation and experiment.

Stability of Organic Materials. Anders Hagfeldt Dept. of Physical Chemistry Ångström Solar Center Uppsala University

Uwe Rau Institut für Energieforschung 5 Photovoltaik- Forschungszentrum Jülich GmbH

1. INTRODUCTION 2. EXPERIMENTAL SET-UP CHARACTERIZATION OF A TUBULAR PLASMA REACTOR WITH EXTERNAL ANNULAR ELECTRODES

OPTI510R: Photonics. Khanh Kieu College of Optical Sciences, University of Arizona Meinel building R.626

Architecture Solaire: du dévelopement technologique au matériau de construction

Detection of Water in Low-k

B7.3. Field Effect SnO2 Nano-Thin Film Layer CMOS-Compatible

Supporting information. and/or J -aggregation. Sergey V. Dayneko, Abby-Jo Payne and Gregory C. Welch*

2G superconducting tape for magnet applications

Highly Efficient Flexible Solar Cells Based on Room-Temperature

Organic Electronic Devices

Improving Efficiency and Reproducibility of Perovskite Solar Cells through Aggregation Control in Polyelectrolytes Hole Transport Layer

Surface modification of polyethylene terephthalate (PET) and oxide coated PET for adhesion improvement

PHOTOVOLTAICS Fundamentals

Challenges in to-electric Energy Conversion: an Introduction

Photovoltaics. Lecture 7 Organic Thin Film Solar Cells Photonics - Spring 2017 dr inż. Aleksander Urbaniak

Conjugated Polymers Based on Benzodithiophene for Organic Solar Cells. Wei You

Polymerveredelung durch Nanotechnologie:

Supporting Information

Roll-to-roll equipment for atmospheric atomic layer deposition for solar applications

PHI 5000 Versaprobe-II Focus X-ray Photo-electron Spectroscopy

M. Audronis 1 and F. Zimone 2 1. Nova Fabrica Ltd. 1. Angstrom Sciences Inc.

Flexible Organic Photovoltaics Employ laser produced metal nanoparticles into the absorption layer 1. An Introduction

Powering Big Data and the IoT s

ORGANIC-BASED LIGHT HARVESTING ELECTRONIC DEVICES

Council for Innovative Research Peer Review Research Publishing System

Supplementary Figure S1. Hole collection layer photovoltaic performance in perovskite solar cells. Current voltage curves measured under AM1.

Leybold Optics Low-E series

Facile and purification-free synthesis of nitrogenated amphiphilic graphitic carbon dots

3.003 Principles of Engineering Practice

Temperature Dependent Current-voltage Characteristics of P- type Crystalline Silicon Solar Cells Fabricated Using Screenprinting

High resolution THz scanning for optimization of dielectric layer opening process on doped Si surfaces

Supporting Information. Monolithic perovskite-homojunction silicon tandem solar cell with over 22% efficiency

ELECTROCHROMIC RADIATORS FOR MICROSPACECRAFT THERMAL CONTROL

Nanomaterials & Organic Electronics Group TEI of Crete

Comparison of Ge, InGaAs p-n junction solar cell

Cho Fai Jonathan Lau, Xiaofan Deng, Qingshan Ma, Jianghui Zheng, Jae S. Yun, Martin A.

Technology Options for Photo voltaic Solar Cells. Claudio Fiegna

University of South Florida Development of a Smart Window for Green Buildings in Florida

Solar Photovoltaics & Energy Systems

status solidi R. Ulbricht, X. Jiang, S. Lee, K. Inoue, M. Zhang, S. Fang, R. Baughman, and A. Zakhidov

Department of Chemistry, NanoCarbon Center, Houston, Texas 77005, United States, University of Central Florida, Research Parkway,

SUPPLEMENTARY INFORMATION

Electrons are shared in covalent bonds between atoms of Si. A bound electron has the lowest energy state.

Latest achievements in the field of dye sensitized and perovskite solar cells Anders Hagfeldt Laboratory of Photomolecular Sciences (LSPM)

Roll-to-roll manufacture of organic transistors for low cost circuits

Novel Inorganic-Organic Perovskites for Solution Processed Photovoltaics. PIs: Mike McGehee and Hema Karunadasa

Recent Developments in Perovskite Materials for Solar Cell Applications. Yu Sheng Min, Researcher of ITRI/MCL

Reducing hole transporter use and increasing perovskite solar cell stability with dual-role polystyrene microgel particles

Commercial Graphene Applications: Current Research and Future Prospects

Impact of the Geometry Profil of the Bandgap of the CIGS Absorber Layer on the Electrical Performance of the Thin-film Photocell

Solar Photovoltaics & Energy Systems

High efficiency silicon and perovskite-silicon solar cells for electricity generation

Chemie en Technologie van Materialen (Materials Science and Technology)

ABB temperature measurement Radiation thermometry. Measurement made easy. Process temperature measurement practice--non-contacting

HSG-IMIT Application AG

LedEngin, Inc. High Luminous Efficacy White Power LedFlex Emitter LZ4-00CW15. Key Features. Typical Applications. Description

Organic Solar Cell: Optics in Smooth and Pyramidal Rough Surface

Mini-project report. Organic Photovoltaics. Rob Raine

Goal for next generation solar cells: Efficiencies greater than Si with low cost (low temperature) processing

Chemistry & Materials Science City University of Hong Kong. Materials Science & Engineering University of Washington. Alex Jen

1. Depleted heterojunction solar cells. 2. Deposition of semiconductor layers with solution process. June 7, Yonghui Lee

Transcription:

Small-molecule OPV: From the Lab to Roll-to-Roll Production Company Presentation 1

Organic solar cells + - Metal contact 100nm 1g/m² Organic semiconductor layers 250nm transparent contact (TCO) 100nm Substrate (e.g. PET) 100-200µm Organic solar cells and OLED: Reverse processes, but similar materials, layer structures and production processes 2

Our 4 Core Competencies Unique in-house feedback loop for continuous improvement Materials development Chemistry lab in Ulm with 15 chemists specialized in organic materials Stack architecture Physics lab in Dresden with 16 physicists specialized in organic electronics I II IV III OPV business development R2R production Experienced management and solar specialists for market entry First production site in Dresden with 23 engineers and operators 3

Our 4 Core Competencies Unique in-house feedback loop for continuous improvement Materials development Chemistry lab in Ulm with 15 chemists specialized in organic materials Stack architecture Physics lab in Dresden with 16 physicists specialized in organic electronics I II IV III OPV business development R2R production Experienced management and solar specialists for market entry First production site in Dresden with 23 engineers and operators 4

Two Approaches to Organic Solar Cells Polymers (plastics): Oligomers / Small molecules: = Heliatek approach N N N N N Zn N N N 5

Chemistry: Materials Development Powerful absobers with superior properties Heliatek develops and synthesizes Smolecules at its own chemistry lab: Oligomers Fullerene C60 Organic absorber Accelerated cycle of learning Faster efficiency improvements Patented Smolecules Defendable barriers 6

Our 4 Core Competencies Unique in-house feedback loop for continuous improvement Materials development Chemistry lab in Ulm with 15 chemists specialized in organic materials Stack architecture Physics lab in Dresden with 16 physicists specialized in organic electronics I II IV III OPV business development R2R production Experienced management and solar specialists for market entry First production site in Dresden with 23 engineers and operators 7

Physics: p-i-n Tandem Devices Patented, highly efficient tandem cells Heliatek designs and optically engineers p-i-n tandem cells: Plastic substrate TCO front electrode + + + + + + + + p + + + + + + + Organic vacuum deposited layers: Total thickness 250 nm Organic absorber 1 n - - - - - - - - - - - - - - - + + + + + + + + p + + + + + + d + Organic absorber 2 - + Optical Engineering: Absorber layers are placed in the respective interference maxima. - - - - - - - - n - - - - - - - Metal back electrode 8

Superior Harvesting Factor Superior low light characteristics Positive Temperature coefficient. 9

Certified Efficiency 12.0% on >1cm² Measured by SGS at standard test conditions Voc= 2.67V FF = 73.5% jsc = 6.11mA/cm² 10

Certified Efficiency 12.0% on >1cm² Voc= 2.67V FF = 73.5% jsc = 6.11mA/cm² Triple junction cell with two different absorbers, (the more widegap: University Ulm, P. Bäuerle) both absorbers ADA-type oligomers covered by Heliatek IP no infrared-absorber involved yet 11

What do we need for tandem cell efficiencies of 13%? V(lambda) HDR014 HDI12 12

First efficient small molecule NIR absorber Voc= 0.69V FF = 66% jsc = 10.7mA/cm² 13

Our 4 Core Competencies Unique in-house feedback loop for continuous improvement Materials development Chemistry lab in Ulm with 15 chemists specialized in organic materials Stack architecture Physics lab in Dresden with 16 physicists specialized in organic electronics I II IV III OPV business development R2R production Experienced management and solar specialists for market entry First production site in Dresden with 23 engineers and operators 14

Unique R2R Production Equipment Precise and homogenous production process for little upscaling losses Roll-to-roll process Vapor deposition Laser structuring Continuous process Linear sources Precise process 500 m long rolls 0.30 m wide web Homogenous deposition Multi-layer stack Ultra narrow scribes Minimum area losses Low temperature (120 C) 15

P3 cut by ps-pulsed laser (R2R in vacuum line!) cuts the metal top contact, but spares the organic layers challenges: do not create shorts at the edges microscopy positioning by pattern recognition (inline camera system) scale: 100µm P1 P2 P3 P1 P2 P3 P1 P2 P3 16

current density (ma/cm²) Single junction module from R2R-production 0.3 STC: 25 C / 1000 W/m² 0.2 0.1 0-0.1-0.2 Voc= 13.7V (0.86V/cell) FF = 33% jsc = 0.22mA/cm² -0.3-10 -5 0 5 10 15 20 voltage V (V) V oc and j sc of lab devices reproduced good blocking behaviour (little shunt problems) for total thickness ~100nm FF heavily influenced by ITO series resistance 17

current (ma) 7% cell efficiency in Role-to-Role manufacturing 300 250 200 general date: 17.09.2014 15:43 aperture/cell area: 1176 cm²/ 43.03 cm² number of cells: 24 aggregated data 150 100 V OC I SC 40.76 V 269.1 ma FF 65.6% DUT eff. 6.12% V mpp 31.72 V I mpp 226.9 ma P mpp 7197 mw Cell eff. 6.97% 50 calibration & measurement 0 0 10 20 30 40 voltage (V) temperature: monitor cell: calibration cell: mismatch factor: 23.7 C (uncorrected) VLSI-KG2 (s/n 20003500000256) VLSI-KG2 (s/n 10510-0082) 0.97 title

9.7% triple junction minimodule on PET foil with production ready materials only active area 4.4 cm² 3 cells in series Voc=7.57V FF=71% Cell eff.=9.7% Absorber from upscaled batch (by toll manufacturer) Stack on glass delivers ~11% PCE at 72% FF Mainly optical losses due to increased surface reflection and lower optical quality of ITO 19

Our 4 Core Competencies Unique in-house feedback loop for continuous improvement Materials development Chemistry lab in Ulm with 15 chemists specialized in organic materials Stack architecture Physics lab in Dresden with 16 physicists specialized in organic electronics I II IV III OPV business development R2R production Experienced management and solar specialists for market entry First production site in Dresden with 23 engineers and operators 20

Focus on 3 segments Selection of three core markets Market Segment Key success factors BiPV Polycarbonate Metal Glass Concrete Integration into multiple building materials Custom-designed dimensions Up to 50% transmission light Harvesting factor Ultra-thin and ultra-light Various colors and homogenous surface Transport Automotive Transparent Film 500g/m² Flexible PET-substrate Truly green technology Colorful solar films & homogenous surface Harvesting factor Light Structures Street furniture Shading structures Sunshades 500g/m² Bending radius of 10 cm 1mm thick Robustness Custom-designed dimensions Up to 50% transmission light 21

B2B Business Model Adding functionality to traditional applications 22

At Heliatek Headquarters First Heliatek OPV glass-glass façade Facing east 40 glasses à 2 foil modules 960 Wp installed power ~ 370 kwh per year 23

Coworkers and People Involved in Heliatek s Network Universität Ulm, Abteilung organische Chemie II: P. Bäuerle et al. Institut für Angewandte Photophysik (TU Dresden): K. Leo et al. BASF SE: Bosch GmbH: Novaled AG, Dresden: FHR Anlagenbau 3D Micromac, Chemnitz Fraunhofer COMEDD Fraunhofer IWS Fraunhofer FEP Fraunhofer ISE Institut für Polymerforschung (IPF), Dresden Creaphys GmbH, Dresden 24

Acknowledgement Research and development work, as well as the installation of production technology, has been funded by: The Sächsische Aufbaubank (SAB) The BMBF (German Secretary for Education and Science) The BMWi (Federal Ministry of Economics and Technology) The European Fund for Regional Development (EFRE) The European Community's Seventh Framework Program (FP7/2007-2013) BMBF: Contract Nr. 13N9716, 13N9869; SAB: Contract Nr. 71070 (UFOS)/Bewilligung Nr. 4014-7654 (GA) EU grant agreement n 287818 of the X10D 25

Our 4 Core Competencies Unique in-house feedback loop for continuous improvement I IV II III 26

Thank you for your attention! First Heliatek OPV glass-glass façade