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ALL PAST & FUTURE EVENTS AS WELL AS MASTERCLASSES WITH A SINGLE ANNUAL PASS

The Future of Photovoltaics: Organic, Perovskites, CIGS, Tandem

24-25 January 2024
2pm-8pm

Berlin Time

Online Event

We examine the latest technical and commercial development trends in perovskite, organic, tandem, CIGS and other next-gen photovoltaic technologies. The conference is a balanced blend of discussions on manufacturing, research and R&D as well as start-up innovations.  It aims to bring together all key players from researchers to start ups to manufacturing companies. It covers all aspects including manfuacturing, stability, performance, novel materials, promising production methods such as printed or R2R, new form factors, novel applications beyond utility. The scope of the event is very international with a speaker programme curated and handpicked by the TechBlick team. If you wish to present in the programme please contact khasha@TechBlick.com


More events on the topic:

The Future of Photovoltaics 2021

The Future of Photovoltaics 2022


Some of the confirmed speakers thus far include Kaust, American Perovskites LLC, InterPhases Solar, Empa, University of Colorado Boulder, Greatcell Energy, Perotech, n-ink, University of Stuttgart, Solaires Entreprises, University of Manchester, North Carolina State University, Taiwan Perovskite Solar Corp, Oxford Suzhou Centre for Advanced Research, Ribes Tech, Verico Technology, Verde Technologies Inc, Caelux, Epishine etc

Perovskites | Organics | CIGS | Tandem | R2R | Inkjet | Printed | Thin Film Deposition | Scale-Up | Stability | Thin Film Barriers | Material Innovations | Substrates | Lead-Free | AI and Machine Learning | Commercialization

Leading global speakers include:
Solaires Entreprises
Verico Technology Holdings Inc
OET - Organic Electronic Technologies P.C.
Perotech
University of Manchester
Ribes Tech
Eurecat
North Carolina State University
Verde Technologies Inc
Halocell Energy
Oxford Suzhou Centre for Advanced Research
American Perovskites
Taiwan Perovskite Solar Corp
Brilliant Matters
Toray Research Center
n-ink
Helmholtz-Zentrum Berlin
Empa-Swiss Federal Laboratories for Materials Science and Technology
Coatema
Pixel Voltaic
InterPhases Solar
National Reseach Centre of Canada
Nano-C
KAUST
Panacol
crystalsol OÜ
University of Colorado Boulder
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Explore our past & upcoming events

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Full Agenda

The times below is Central European Times (CET).

Coming Soon
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24 January 2024

TechBlick

Wednesday

Welcome & Introduction

More Details

1:00 PM

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Talk Demo

Khasha Ghaffarzadeh

Welcome & Introduction

1:00 PM

Watch Demo Video
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24 January 2024

Halocell Energy

Wednesday

Peculiar Perovskites

More Details

1:05 PM

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Emanuele Calabró

Material Scientist

Peculiar Perovskites

1:05 PM

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24 January 2024

KAUST

Wednesday

Pathways to Efficient and Stable Perovskite/Silicon Tandem Solar Cells

More Details

1:25 PM

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Stefaan De Wolf

Professor

In this presentation I will discuss the multiple ways how monolithic perovskite/silicon can be fabricated, built from textured silicon heterojunction solar cells, with an emphasis on solution of the perovskite top cell. Bulk and contact passivation of the perovskite are instrumental to obtain a high performance, which can be obtained through molecular additive engineering. Combined, this recently led to a certified power conversion efficiency of 33.7% for a monolithic perovskite/silicon tandem solar cell. This will be followed by a discussion about the outdoor performance of such tandems and the need for robust and perovskite-compatible encapsulation to do so. I will then move on to discuss reliability aspects of such tandems under accelerated degradation tests such as damp-heat testing, reverse-bias and potential induced degradation, as well as possible mechanical failure due to top-contact delamination. I will conclude my talk with arguing how bifacial perovskite/silicon tandems aid in improved performance as well as stability.

Pathways to Efficient and Stable Perovskite/Silicon Tandem Solar Cells

1:25 PM

In this presentation I will discuss the multiple ways how monolithic perovskite/silicon can be fabricated, built from textured silicon heterojunction solar cells, with an emphasis on solution of the perovskite top cell. Bulk and contact passivation of the perovskite are instrumental to obtain a high performance, which can be obtained through molecular additive engineering. Combined, this recently led to a certified power conversion efficiency of 33.7% for a monolithic perovskite/silicon tandem solar cell. This will be followed by a discussion about the outdoor performance of such tandems and the need for robust and perovskite-compatible encapsulation to do so. I will then move on to discuss reliability aspects of such tandems under accelerated degradation tests such as damp-heat testing, reverse-bias and potential induced degradation, as well as possible mechanical failure due to top-contact delamination. I will conclude my talk with arguing how bifacial perovskite/silicon tandems aid in improved performance as well as stability.

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24 January 2024

Empa-Swiss Federal Laboratories for Materials Science and Technology

Wednesday

Recent Progress & Key Challenges in Upscaling Flexible All-Perovskite Tandem Mini-module

More Details

1:45 PM

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Talk Demo

Fan Fu

Group Leader

Recent Progress & Key Challenges in Upscaling Flexible All-Perovskite Tandem Mini-module

1:45 PM

Watch Demo Video
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24 January 2024

Networking

Wednesday

Meet The Speakers/Networking Break

More Details

2:05 PM

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Talk Demo

Meet The Speakers/Networking Break

2:05 PM

Watch Demo Video
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24 January 2024

Eurecat

Wednesday

InMold Organic Photovoltaics

More Details

2:40 PM

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Ignasi Burgues

Research Scientist

For the consolidation of organic photovoltaics (OPV), it is crucial to create market pull through the identification and target of strategic niches, where this technology can exploit its fundamental differentiators.1 For instance, materials engineering has enabled wavelength-selective harvesting with transparent OPV for power-generating windows2 and building-integrated photovoltaics.3 Therein, a simultaneous high efficiency and high transparency are needed. While the community has made relevant developments to maximize the optoelectronic properties of OPV devices, little attention has been paid to their structural properties. High-volume manufacturing technologies such as plastic thermoforming and injection moulding can help expand the opportunities, the capabilities, and the seamless integration of OPV.

In this work we demonstrate, for the first time, the feasibility of fabricating OPV cells and modules embedded into structural plastic parts through injection moulding. This process yields lightweight OPV devices with enhanced device robustness and durability, thanks to the hermetical and conformable encapsulation resulting from the plastic injection. We discuss the interplay between the plastic processing conditions and the OPV device performance and stability, as well as highlight relevant optomechanical and physico-chemical material properties, including recyclable thermoplastic polymeric materials that might facilitate material reuse. Finally, we also show how plastic processing can be used to fabricate low-cost, three‑level hierarchically organized micro/nanometric surface textures that provide additional functionalities, such as light management or self-cleaning.4

InMold Organic Photovoltaics

2:40 PM

For the consolidation of organic photovoltaics (OPV), it is crucial to create market pull through the identification and target of strategic niches, where this technology can exploit its fundamental differentiators.1 For instance, materials engineering has enabled wavelength-selective harvesting with transparent OPV for power-generating windows2 and building-integrated photovoltaics.3 Therein, a simultaneous high efficiency and high transparency are needed. While the community has made relevant developments to maximize the optoelectronic properties of OPV devices, little attention has been paid to their structural properties. High-volume manufacturing technologies such as plastic thermoforming and injection moulding can help expand the opportunities, the capabilities, and the seamless integration of OPV.

In this work we demonstrate, for the first time, the feasibility of fabricating OPV cells and modules embedded into structural plastic parts through injection moulding. This process yields lightweight OPV devices with enhanced device robustness and durability, thanks to the hermetical and conformable encapsulation resulting from the plastic injection. We discuss the interplay between the plastic processing conditions and the OPV device performance and stability, as well as highlight relevant optomechanical and physico-chemical material properties, including recyclable thermoplastic polymeric materials that might facilitate material reuse. Finally, we also show how plastic processing can be used to fabricate low-cost, three‑level hierarchically organized micro/nanometric surface textures that provide additional functionalities, such as light management or self-cleaning.4

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24 January 2024

Coatema

Wednesday

The impact and challenges of using Roll2Roll process in industrial ramp-up

More Details

3:00 PM

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Thomas Kolbusch

Director Sales, Marketing, Technology, VP

The impact and challenges of using Roll2Roll process in industrial ramp-up

3:00 PM

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24 January 2024

OET - Organic Electronic Technologies P.C.

Wednesday

Roll2Roll High-Volume Manufacturing of OPVs

More Details

3:20 PM

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Evangelos Mekeridis

CTO

Roll2Roll High-Volume Manufacturing of OPVs

3:20 PM

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24 January 2024

Networking

Wednesday

Meet The Speakers/Networking Break

More Details

3:40 PM

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Talk Demo

Meet The Speakers/Networking Break

3:40 PM

Watch Demo Video
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24 January 2024

Nano-C

Wednesday

Advanced Materials for Solar Applications

More Details

4:15 PM

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Paul Brookes

Director, Device Fabrication and Testing

Advanced Materials for Solar Applications

4:15 PM

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24 January 2024

Solaires Entreprises

Wednesday

Manufacturability of perovskite solar modules towards indoor applications

More Details

4:35 PM

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Dr. Anjusree Shyla

Research And Development Manager

Manufacturability of perovskite solar modules towards indoor applications

4:35 PM

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24 January 2024

Perotech

Wednesday

Solution processed perovskite bifacial module*

More Details

4:55 PM

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Jinsong Huang

Founder

Solution processed perovskite bifacial module*

4:55 PM

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24 January 2024

American Perovskites

Wednesday

Sunproofing America - Revolutionizing the supply chain for solar cells

More Details

5:15 PM

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Nick Denegre

Co-Founder

An early-stage startup company aiming to supply material and equipment for perovskite-based solar technology with production facilities in Colorado. We are driven by a passion for scientific innovation and a commitment to making a positive impact on the world. Our journey began with a simple but powerful idea: to harness the potential of perovskite materials, accelerate the manufacturing of solar cell semiconductors, and create a diversified and inclusive future workforce.

What is a perovskite solar cell?

Perovskite solar cells (PSCs) were developed about 15 years ago and can achieve higher power conversion efficiencies at lower cost compared to traditional solar cells.

What is the hole transport layer?

Hole transport layers (HTLs) are thin films placed in perovskite solar cells to facilitate the efficient movement of positive charges (holes) from the light-absorbing perovskite layer to the electrode.
Why polymer hole transport materials?

AP's polymer hole transport materials (PHTMs) offer advantages such as high hole mobility, thermal and chemical stability, excellent surface contact and passivation, and cost competitiveness, making them desirable for use as HTLs in perovskite solar cells to enhance their performance and stability.

Sunproofing America - Revolutionizing the supply chain for solar cells

5:15 PM

An early-stage startup company aiming to supply material and equipment for perovskite-based solar technology with production facilities in Colorado. We are driven by a passion for scientific innovation and a commitment to making a positive impact on the world. Our journey began with a simple but powerful idea: to harness the potential of perovskite materials, accelerate the manufacturing of solar cell semiconductors, and create a diversified and inclusive future workforce.

What is a perovskite solar cell?

Perovskite solar cells (PSCs) were developed about 15 years ago and can achieve higher power conversion efficiencies at lower cost compared to traditional solar cells.

What is the hole transport layer?

Hole transport layers (HTLs) are thin films placed in perovskite solar cells to facilitate the efficient movement of positive charges (holes) from the light-absorbing perovskite layer to the electrode.
Why polymer hole transport materials?

AP's polymer hole transport materials (PHTMs) offer advantages such as high hole mobility, thermal and chemical stability, excellent surface contact and passivation, and cost competitiveness, making them desirable for use as HTLs in perovskite solar cells to enhance their performance and stability.

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24 January 2024

Networking

Wednesday

Meet The Speakers/Networking Break

More Details

5:35 PM

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Talk Demo

Meet The Speakers/Networking Break

5:35 PM

Watch Demo Video
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24 January 2024

University of Manchester

Wednesday

Scalable Semi-transparent Organic Photovoltaics

More Details

6:10 PM

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Dr. Emma Spooner

Research Associate

Organic photovoltaics (OPVs) are an emerging thin film solar technology based on organic semiconductors. OPVs are promising due to their potential for solution processability, low temperature manufacture, and tuneable absorption. The latter of these allows for semi-transparent OPVs (STOPVs), meaning visible light can be transmitted whilst electricity is still generated. STOPVs have huge potential for building integrated PV, power generating windows, and other architectural and industrial applications.

Here we will discuss our project based on scalable STOPVs, as part of a collaboration between the University of Manchester and Manchester based company Contra Vision. Work so far includes preliminary transfer-matrix modelling work evaluating different active layer components and top electrodes; dilute donor compositions for tuning light utilisation efficiency; and exploration of a variety of charge transport layers towards a fully printed OPV stack.

Scalable Semi-transparent Organic Photovoltaics

6:10 PM

Organic photovoltaics (OPVs) are an emerging thin film solar technology based on organic semiconductors. OPVs are promising due to their potential for solution processability, low temperature manufacture, and tuneable absorption. The latter of these allows for semi-transparent OPVs (STOPVs), meaning visible light can be transmitted whilst electricity is still generated. STOPVs have huge potential for building integrated PV, power generating windows, and other architectural and industrial applications.

Here we will discuss our project based on scalable STOPVs, as part of a collaboration between the University of Manchester and Manchester based company Contra Vision. Work so far includes preliminary transfer-matrix modelling work evaluating different active layer components and top electrodes; dilute donor compositions for tuning light utilisation efficiency; and exploration of a variety of charge transport layers towards a fully printed OPV stack.

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24 January 2024

Ribes Tech

Wednesday

Fully printed additive manufacturing for indoor photovoltaic cells

More Details

6:30 PM

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Francesca Scuratti

Product Development Manager

Fully printed additive manufacturing for indoor photovoltaic cells

6:30 PM

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24 January 2024

Brilliant Matters

Wednesday

Materials Developments for Stable, Scalable and Efficient Organic Solar cells

More Details

6:50 PM

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Philippe Berrouard

Founder & CTO

Organic photovoltaic technologies are a 3rd generation solar technology which has been steadily improving in the past decade due to rapid evolutions in materials design, device stacks and processing strategies. Due to their high efficiency, non-toxic nature and low-cost-high-volume manufacturing potential, several market-ready applications are now emerging for this technology. For instance, photovoltaic modules for indoor energy harvesting, for integration into buildings such as greenhouses, office buildings or even vehicles. In this presentation Brilliant Matters will outline some of the current challenges in the field of high performance and scalable OPVs from a materials chemistry perspective and will discuss novel materials systems for efficient, stable and scalable OPV devices

Materials Developments for Stable, Scalable and Efficient Organic Solar cells

6:50 PM

Organic photovoltaic technologies are a 3rd generation solar technology which has been steadily improving in the past decade due to rapid evolutions in materials design, device stacks and processing strategies. Due to their high efficiency, non-toxic nature and low-cost-high-volume manufacturing potential, several market-ready applications are now emerging for this technology. For instance, photovoltaic modules for indoor energy harvesting, for integration into buildings such as greenhouses, office buildings or even vehicles. In this presentation Brilliant Matters will outline some of the current challenges in the field of high performance and scalable OPVs from a materials chemistry perspective and will discuss novel materials systems for efficient, stable and scalable OPV devices

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25 January 2024

TechBlick

Thursday

Welcome & Introduction

More Details

1:00 PM

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Talk Demo

Khasha Ghaffarzadeh

Welcome & Introduction

1:00 PM

Watch Demo Video
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25 January 2024

Taiwan Perovskite Solar Corp

Thursday

Large-scale perovskite production: materials, processes, and challenges

More Details

1:05 PM

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Chih-Hsuan Chao

Research And Development Engineer

In the field of solar energy, it has become a common belief that perovskite solar cells
are advancing at an unprecedented pace. While the historical trajectory may seem
astonishing, we can gain insight by examining the development path of the solar cell
industry, which has progressed from silicon and CIGS (copper indium gallium
selenide) to organic solar cells. Perovskite solar cells represent the culmination of
decades of knowledge and research.
A perovskite solar cell is composed of multiple layers. Each layer is carefully
deposited on a substrate, which imposes certain limitations on the choice of
materials and manufacturing processes for the top layer. To overcome these
limitations, various process technologies such as slot-die coating, blade-coating, and
spray deposition have been developed and refined for large-scale production.
Additionally, a wide range of materials has been extensively studied.
In the presentation, we will delve into the critical considerations for selecting
materials and processes when fabricating perovskite solar cells. Furthermore, we will
highlight the challenges and obstacles associated with these technologies.

Large-scale perovskite production: materials, processes, and challenges

1:05 PM

In the field of solar energy, it has become a common belief that perovskite solar cells
are advancing at an unprecedented pace. While the historical trajectory may seem
astonishing, we can gain insight by examining the development path of the solar cell
industry, which has progressed from silicon and CIGS (copper indium gallium
selenide) to organic solar cells. Perovskite solar cells represent the culmination of
decades of knowledge and research.
A perovskite solar cell is composed of multiple layers. Each layer is carefully
deposited on a substrate, which imposes certain limitations on the choice of
materials and manufacturing processes for the top layer. To overcome these
limitations, various process technologies such as slot-die coating, blade-coating, and
spray deposition have been developed and refined for large-scale production.
Additionally, a wide range of materials has been extensively studied.
In the presentation, we will delve into the critical considerations for selecting
materials and processes when fabricating perovskite solar cells. Furthermore, we will
highlight the challenges and obstacles associated with these technologies.

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25 January 2024

Oxford Suzhou Centre for Advanced Research

Thursday

Efficient and Stable Inverted Perovskite Solar Cell with modified Al as a Cathode

More Details

1:25 PM

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Dr. Jingsong Huang

Co-Principal Investigator

Inexpensive metal Al is scarcely utilized as the cathode in the perovskite solar cells (PVSCs) because its violent reaction with perovskite active layer results in poor device stability in air. A novel solution-processed cathode interlayer material, surfactant encapsulated polyoxometalate complex [(C8H17)4N]4[SiW12O40] (TOASiW12) is employed to modify Al as the cathode. The power conversion efficiency (PCE) of 20.64% has been achieved in the inverted PVSCs. The findings demonstrate that a thin TOASiW12 layer can effectively obstruct the chemical reaction between Al and perovskite layer, and significantly enhance the device stability. The unencapsulated devices with TOASiW12-modified Al retain more than 80% of the initial PCE after 350 h storage in the ambient atmosphere at 45% relative humidity. This work provides an alternative cathode interlayer material for efficient and stable inverted PVSCs.

Efficient and Stable Inverted Perovskite Solar Cell with modified Al as a Cathode

1:25 PM

Inexpensive metal Al is scarcely utilized as the cathode in the perovskite solar cells (PVSCs) because its violent reaction with perovskite active layer results in poor device stability in air. A novel solution-processed cathode interlayer material, surfactant encapsulated polyoxometalate complex [(C8H17)4N]4[SiW12O40] (TOASiW12) is employed to modify Al as the cathode. The power conversion efficiency (PCE) of 20.64% has been achieved in the inverted PVSCs. The findings demonstrate that a thin TOASiW12 layer can effectively obstruct the chemical reaction between Al and perovskite layer, and significantly enhance the device stability. The unencapsulated devices with TOASiW12-modified Al retain more than 80% of the initial PCE after 350 h storage in the ambient atmosphere at 45% relative humidity. This work provides an alternative cathode interlayer material for efficient and stable inverted PVSCs.

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25 January 2024

Toray Research Center

Thursday

Analysis method proposal toward the high-efficiency Perovskite solar cells

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1:45 PM

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Tsukasa Koyama

We have provided analytical services and R&D support to customers using innovative analytical techniques and physical analyses for over 40 years, and we have been involved in Perovskite Solar Cells for over 10 years. We will introduce the latest analytical technologies for Perovskite Solar Cells, for example, crystal structure evaluation in the cells by XRD and 4D-STEM, electrical characteristics of the power generation layer for the cells by SSRM and SEM, evolved gas analysis during sample heating by TPD-MS, and depth profile analysis of element and organic molecules distribution by SIMS, etc. Please learn more about our technical information at the presentation

Analysis method proposal toward the high-efficiency Perovskite solar cells

1:45 PM

We have provided analytical services and R&D support to customers using innovative analytical techniques and physical analyses for over 40 years, and we have been involved in Perovskite Solar Cells for over 10 years. We will introduce the latest analytical technologies for Perovskite Solar Cells, for example, crystal structure evaluation in the cells by XRD and 4D-STEM, electrical characteristics of the power generation layer for the cells by SSRM and SEM, evolved gas analysis during sample heating by TPD-MS, and depth profile analysis of element and organic molecules distribution by SIMS, etc. Please learn more about our technical information at the presentation

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25 January 2024

Networking

Thursday

Meet The Speakers/Networking Break

More Details

2:05 PM

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Talk Demo

Meet The Speakers/Networking Break

2:05 PM

Watch Demo Video
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25 January 2024

n-ink

Thursday

Enhancing solar cell performance using n-type conductive inks

More Details

2:40 PM

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Johannes Bintinger

CEO

Enhancing solar cell performance using n-type conductive inks

2:40 PM

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25 January 2024

Panacol

Thursday

Adhesive Solutions for Perovskite-based and Organic Photovoltaic Applications

More Details

3:00 PM

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Lena Reinke

Business Development Manager

Adhesive Solutions for Perovskite-based and Organic Photovoltaic Applications

3:00 PM

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25 January 2024

National Reseach Centre of Canada

Thursday

Non-fullerene Acceptors for Indoor Organic Photovoltaics

More Details

3:20 PM

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Talk Demo

Austin He

Research Officer

Non-fullerene Acceptors for Indoor Organic Photovoltaics

3:20 PM

Watch Demo Video
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25 January 2024

Networking

Thursday

Meet The Speakers/Networking Break

More Details

3:40 PM

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Talk Demo

Meet The Speakers/Networking Break

3:40 PM

Watch Demo Video
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25 January 2024

crystalsol OÜ

Thursday

*Printed CZTS photovoltaic technology

More Details

4:15 PM

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Dieter Meissner

Chief Scientist, Founder

*Printed CZTS photovoltaic technology

4:15 PM

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25 January 2024

InterPhases Solar

Thursday

Versatile in-line Roll-to-roll Process for Flexible, Thin-Film Devices

More Details

4:35 PM

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Shalini Menezes

Founder, CEO, R&D Director

Fabricating devices with non-vacuum roll-to-roll processes that intrinsically host nano-scale pn junctions offer an attractive platform to create low-cost, flexible, lightweight opto-electronic devices. Incumbent 3G nano technologies still face significant challenges in-terms of stability, toxicity, up-scaling and reproducibility to reach the status of the established technology. Here we present an alternate path that integrates new device structure, process and manufacturing. It features a compact, practical, atmospheric process to manufacture high quality, ordered 3D
nanocrystalline pn homojunction (NHJ) device structures. Exemplified here by two Cu-In-Se (CISe) compounds, the method entails single-step electrodeposition of interconnected network of p-CISe and n-CISe nanocrystals to create a depleted NHJ thin film. Extraordinary attributes the CISe NHJs include non-linear emissions, large carrier mobility, low trap-state-density, long carrier lifetime and likely up-conversion. The NHJ film can be inserted between two electrodes to produce an isotropic device, wherein current can flow in either direction to convert light into electricity or applied voltage into light.
Although originally conceived for CISe solar cells, this radical concept could create NHJs with most II-VI or III-V semiconductors for wide spectrum of applications, e.g., PV panels, LEDs, photodetectors, photoelectrodes, laser diodes, displays, MEMS and optical fibers. Importantly, the NHJ structure can be continuously roll-to-roll processed in ambient atmosphere from aqueous solution. Overall, this approach offers a promising low-cost processing platform to create high performance, stable and scalable devices. The NHJs could essentially perform like 2D planar pn
junctions or artificially ordered 3D nano-structures, but without their high cost and fabrication complexities.

Versatile in-line Roll-to-roll Process for Flexible, Thin-Film Devices

4:35 PM

Fabricating devices with non-vacuum roll-to-roll processes that intrinsically host nano-scale pn junctions offer an attractive platform to create low-cost, flexible, lightweight opto-electronic devices. Incumbent 3G nano technologies still face significant challenges in-terms of stability, toxicity, up-scaling and reproducibility to reach the status of the established technology. Here we present an alternate path that integrates new device structure, process and manufacturing. It features a compact, practical, atmospheric process to manufacture high quality, ordered 3D
nanocrystalline pn homojunction (NHJ) device structures. Exemplified here by two Cu-In-Se (CISe) compounds, the method entails single-step electrodeposition of interconnected network of p-CISe and n-CISe nanocrystals to create a depleted NHJ thin film. Extraordinary attributes the CISe NHJs include non-linear emissions, large carrier mobility, low trap-state-density, long carrier lifetime and likely up-conversion. The NHJ film can be inserted between two electrodes to produce an isotropic device, wherein current can flow in either direction to convert light into electricity or applied voltage into light.
Although originally conceived for CISe solar cells, this radical concept could create NHJs with most II-VI or III-V semiconductors for wide spectrum of applications, e.g., PV panels, LEDs, photodetectors, photoelectrodes, laser diodes, displays, MEMS and optical fibers. Importantly, the NHJ structure can be continuously roll-to-roll processed in ambient atmosphere from aqueous solution. Overall, this approach offers a promising low-cost processing platform to create high performance, stable and scalable devices. The NHJs could essentially perform like 2D planar pn
junctions or artificially ordered 3D nano-structures, but without their high cost and fabrication complexities.

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25 January 2024

Pixel Voltaic

Thursday

Laser-assisted glass encapsulation for perovskite photovoltaics.

More Details

4:55 PM

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Tiago Lagarteira

Project Engineer

Laser-assisted glass encapsulation for perovskite photovoltaics.

4:55 PM

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25 January 2024

Verde Technologies Inc

Thursday

Speeding commercialization through early engagement with contract manufacturers.

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5:15 PM

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Talk Demo

Skylar Badgon,

Chief Executive Officer

Key considerations for startups working with contract manufacturers and how to get the most out of the relationship to accelerate product development and commercialization. Examples from roll to roll contract coating for perovskite photovoltaic.

Speeding commercialization through early engagement with contract manufacturers.

5:15 PM

Key considerations for startups working with contract manufacturers and how to get the most out of the relationship to accelerate product development and commercialization. Examples from roll to roll contract coating for perovskite photovoltaic.

Watch Demo Video