S.Y. Kim, W.B. Park, J.S. Moon, J.W. Sung, T.H. Kim, J.H. Roh, D.J. Park
Materials & Devices Advanced Research Center, LG Electronics Inc. Seoul, Korea


It was believed that graphene is a wonder material, capable of changing the world like plastics.
However, we have not experienced a graphene industrial revolution yet. Slow advances in its R&D make graphene’s commercial future much less certain. The main reason behind this is cost. Despite superior properties of graphene, the cost to benefit ratio of applying graphene to commercial products is not clear. Also, the obstacle to be overcome is reliable and consistent production of high quality graphene. Here, LG Electronics has made a challenge for mass production of high quality graphene.
In this talk, it is addressed that vertical R2R CVD reactors have been developed for large area and mass production. How the graphene quality has been improved and how we control the quality for mass production is presented. Our business strategy for future graphene applications is shortly mentioned.

Since the discovery of graphene and its impressive mechanic, thermal and electrical properties, major materials research efforts have been made towards harnessing these properties for the development of polymer composites with unprecedented performance. While this research has shown that some of the bolder expectations for their properties will probably not be achievable for reasons from basic physics, substantial progress has been made in the production of composites with more down-to-earth property improvements.
At the same time, the production of graphene related materials (GRM) has made great progress with respect to available quantities, cost and resource efficiency that pragmatic applications of graphene as just another functional filler for polymer composites has become economically and ecologically viable.

While such properties are not necessarily “flashy”, they nevertheless may greatly help the polymer industry on the way of to a more circular and resource-efficient economy.

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In this talk, we will first present the science behind how graphene can enhance the mechanical properties of elastomers like rubbers, and also foams. We will then talk about how inov-8 have pioneered the use of graphene-enhanced rubber in their Graphene-Grip outsoles, and graphene-enhanced foams in their G-Fly midsoles. These deliver uncompromising and world-leading performance in inov-8s’ running, hiking and fitness footwear, which are now sold both online and in high-street stores all over the world. These shoes have won numerous Editor’s Choice awards and powered athletes to competition successes and world records.

In this talk, we will first present the science behind how graphene can enhance the mechanical properties of elastomers like rubbers, and also foams. We will then talk about how inov-8 have pioneered the use of graphene-enhanced rubber in their Graphene-Grip outsoles, and graphene-enhanced foams in their G-Fly midsoles. These deliver uncompromising and world-leading performance in inov-8s’ running, hiking and fitness footwear, which are now sold both online and in high-street stores all over the world. These shoes have won numerous Editor’s Choice awards and powered athletes to competition successes and world records.

Bodil Oudshoorn
Inov-8

Bio

Dr Bodil Oudshoorn is the Footwear Product Manager at the British sports brand inov-8. After a PhD in Sports Engineering at Sheffield Hallam University she has now moved to industry, combining her knowledge of engineering, biomechanics and sport to produce innovative footwear for athletes.

For lithium ion batteries, the use of silicon as active material on the negative electrode is most promising, since silicon offers exceptional high volumetric and gravimetric lithium storage capabilities as well as low charging/discharging potentials. However, this high storage capability is accompanied with high volume changes during lithium insertion/extraction, which causes a rapid decay in dimensional stability of the host material (1). The use of graphene-related materials can help to overcome these crucial problems, as graphene offers a highly conductive and mechanically stable matrix that can suppress or buffer this large volume expansion (2) (3). Consequently, graphene-related materials improve the cycling stability by retaining the native structural integrity as well as the electrode porosity.

An introduction how graphene can enhance heat dissipation in electronic devices as well as for coatings and plastic materials is given. A short overview on the processing steps to get highly flexible heat dissipation film with graphene oxide as starting precursor is discussed. Finally the latest R&D results for corrosion protection is presented.

Cabot is a leading supplier of conductive carbon additives and has recently expanded its portfolio to include carbon nanostructures (CNS), a unique network of crosslinked carbon nanotubes. CNS can deliver conductivity at very low loadings in composite systems. This enables the development of innovative solutions in many applications ranging from EMI shielding plastics and silicones to conductive high end elastomers, as well as next generation formulations for batteries.

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The application bulk graphene materials in composites is predicted to be the largest market for graphene. Several products based on composites, mainly in sport good sector, claims that are based on graphene materials (GRMs).
GRMs are a family of materials with remarkable differences in morphology, aspect ratio, surface chemistry. An adequate selection of the GRM and processing technique is a key factor for achieves the desired properties.
In the presentation we will describe the influence of the GRM and processing technologies for the preparation of multifuctional composites with electrical and/or thermal conductivity, mechanical performance, fire retardancy, barrier properties and the potential market and actual large volume application in the polymer composites sector.

Julio Gomez
CEO @ Avanzare

Bio

He received his B.S. degree in Chemistry from Universidad Complutense de Madrid (1995) receiving the best B.S. degree in Chemistry in 1995 award in the University Complutense de Madrid. Ph.D. in Chemistry (2000) from University of La Rioja, best PhD degree in Science and Technology award in the University of La Rioja from the years 1999-2000
Postdoctoral researcher position in the Laboratoire de Synthèse Organique, University of Nantes-CNRS.After finishing his Ph.D, he spent 3 years as assistant Professor in Universidad de La Rioja and 2 years as an Area Manager in the research centre CIDETEC studying electrochemical systems.
He was the founder of AVANZARE at the end of 2004. He is actually the President of the Board of Directors of Avanzare.
He is the president of the Spanish Graphene Alliance.
He has received the National Award Entrepreneur of the year 2008 in Spain by the ministry of industry.
He has also received the best product award NANOAWARDS 2008 (USA). F&S best practices award in innovation 2013 (UK) for graphene composites. Finalist of the National Awards in Excellence 2013 and finalist of Innovation in SME awards 2018.
Member of the Executive board of the Chamber of Commerce from La Rioja from 2010. He is member of the Social Council of La Rioja University elected by the Regional Parliament from 2012.
Inventor in 12 patents all of them under exploitation or licenced. Author of 62 papers and 7 books (H factor 28).

Unicorns – a privately funded start-up valued at $1 billion or more - are every Venture Capital Investor’s dream. It typically requires a highly disruptive and scalable technology targeting a large and growing market. The Materials Sector has however not been the posterchild for VC investors. IP Group has been active in this sector by supporting University spin-outs for the last 20 years and this is to share some of the lessons learned and suggestions on how this (almost) untapped unicorn source might eventually get unlocked.

Achim Hoffmann
Investment Director @ IP Group

Bio

Achim has been working in the entrepreneurial scientific tech sector for the last 20 years after raising government grant funding for his water disinfection technology start-up before joining IP Group as Deep Tech Investor in 2013. He launched his career at the Cleantech Fraunhofer Institute IUSE as an expert for membrane process development mainly for water applications but also got involved in a wide range of other industrial cleantech projects. Later he joined McKinsey & Company initially in the Düsseldorf and then the London Office as a strategy consultant working across a variety of client industries addressing mainly strategic client issues. Achim received his Chemical Engineering Diploma and Dr Degrees from Universities in Karlsruhe (KIT) and Dortmund, Germany. He also holds an MBA from Kellogg. While being involved in a wide variety of physical science investment propositions and heavily involved in the hands-on business building of portfolio companies at IP Group, he is specifically interested in material, engineering and water related opportunities.

Sixonia Tech has developed a process that creates the ability to functionalize few-layer graphenes deliberately and precisely, directly during their production. Compared to other “graphene” products, our E-Graphenes show a superior combination of tailorable properties within a single material, such as large flake-size in the µm-range, low thickness in the range of typically 1-5 layers and good processability. Unlike in (r)GO, the defined functional groups can provide an improved processability, while still maintaining high electrical conductivity and reasonable sheet size.
Our scalable and eco-friendly electrochemical process opens up new possibilities and prospects for the applications of graphene, in the field of inks, composites, sensors, energy storage and energy conversion. As an example, our E-Graphenes can be functionalized to be dispersible in water without the need for surfactants, while still maintaining an intrinsic conductivity that is at least one order of magnitude higher than that of commonly used reduced graphene oxide (rGO) materials. In contrast to liquid phase exfoliated (LPE) graphene materials, the absence of surfactants can also significantly increase achievable conductivities after deposition and reduce the number of necessary downstream processing steps.

There are many companies worldwide claiming to produce “graphene materials” but showing huge disparity in their properties. Because of that, many industrial applications were hindered by quality and price of graphene. In this space, 2D Materials Pte. Ltd. (2DM) manufactures high-performance graphene at industrial scale as an industrial additive to enhance many industrial products, such as batteries, coatings, and composites. Our vision is to expand the frontier of materials application using high-performance graphene. Some examples of customer’s trials will be presented, and the performance-price and price-volume correlations will be discussed focusing on the value added to customers’ products.

Graphene quantum dots (GQD), offers new application opportunities due to its bandgap tunability through quantum confinement and edge effects, stable photoluminescence, chemical stability and low toxicity. Owing to their excellent optical, thermal and electrical properties, GQDs have generated enormous excitement in different applications such as bio-imaging, optical sensors and photovoltaic devices. In this talk, unique properties and applications of GQDs will be presented together with Quantag’s approach of using GQDs for product authentication applications.

Anna Carlsson the CTO of Bright Day Graphene will talk about their unique process for producing graphene from a residual product from the pulp and paper industry. She will also talk about Bright Day Graphene´s plans for full scale production.

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Textile is the natural interface coating the average human appr. 95% of lifetime and beyond. Ability to read and deliver electrical signals to human skin would enable constant human-machine interaction as a part of future digital world. So far, textile conductivity was realized either by incorporation of conductive threads during manufacturing or via applying a conductive paint onto its surface after manufacturing. We have developed a method for fabrication of electrically active fabric via coating the textile fibres on the nanoscale level. Upon adding 2gr/sqm of graphene, the textile becomes conductive, but preserves its original properties – softness and permeability. Such lightweight, flexible and breathable textiles can enable the future digital textile interfaces for human-machine interaction.

Versarien plc is an advanced engineering materials group. Leveraging proprietary technology, the group creates innovative engineering solutions for its clients in a diverse range of industries. Our UK subsidiaries are leaders in the field of graphene and related layered materials (GRMs) production and commercialisation; 2-DTech Ltd., which specialises in the supply, characterisation and early stage development of graphene products; ACC Cyroma Ltd, which specialises in the supply of vacuum-formed and injection-moulded products to the automotive, construction, utilities and retail industry sectors; and Cambridge Graphene Ltd. supplies novel inks based on graphene and related materials to develop graphene materials technology for licensing to manufacturers.
This talk will briefly outline our ambitious GSCALE programme to accelerate the scale-up of 5 manufacturing approaches; and will create shop floor QC processes to facilitate the efficient delivery of required volume production of graphene powders, dispersions, compounds and masterbatches. Our approach is to move “SCALE” products to TRL8/9 through testing, validation and technical improvements to achieve required standards in volume opportunities.

Strength improvements of up to 50% could lead to reduced concrete quantities for a specific application. Combined with other advantages such as barrier and migration properties mean graphene concrete could lead to disruptive concrete performance without disrupting current production processes. Successful roll out these breakthroughs has the potential to transform the construction industry and Nationwide Engineering Group have formed Concretene Ltd to expedite this. Working together with world leading centres of expertise in graphene production and structural engineering our vision is to exploit the full potential, revolutionise current practice, and place the UK at the global forefront of construction technology for many years to come. www.concretene.co.uk

Strength improvements of up to 50% could lead to reduced concrete quantities for a specific application. Combined with other advantages such as barrier and migration properties mean graphene concrete could lead to disruptive concrete performance without disrupting current production processes. Successful roll out these breakthroughs has the potential to transform the construction industry and Nationwide Engineering Group have formed Concretene Ltd to expedite this. Working together with world leading centres of expertise in graphene production and structural engineering our vision is to exploit the full potential, revolutionise current practice, and place the UK at the global forefront of construction technology for many years to come. www.concretene.co.uk

Nickel-electroplated steel coated with a CVD graphene, has been found to act as a durable barrier to nickel oxidation in ambient conditions. Roll to roll production may be facilitated through the excellent catalytic performance of the nickel to give complete coverage with limited stacking. The superior protection of the nickel surface by graphene, in combination with improved electrical conductivity, brings an added value to existing applications and opens up potential applications in photovoltaics, energy transfer and energy storage.
An innovative and environmentally friendly process of growing multilayer graphene-based films by extracting atomic carbon from various steel grades will be presented.

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Graphene shows their promising application in electronic devices, functional thin films and MEMS. The extraordinary performance of graphene devices can only be obtained with the reliable fabrication of high-quality graphene. Our goal is to fabricate the wafer-size single crystalline graphene with atomic smoothness. Our products include 2”-8” monolayer single crystalline graphene grown on Cu film, CuNi alloy film, Ge. We also provide polycrystalline graphene wafer directly grown on silicon oxide/Si without metal layer. Furthermore, we also have the capability to fabricate h-BN thin film with thickness from one layer to multilayer up to 30 nm.

Two challenges that must be overcome to reach the potential of graphene in electronics and energy storage applications are: industrial scale quantities of high-quality graphene (properties closest to the single layer graphene) and its integration to the material composite (polymer matrix). In this presentation, PPG and Raymor will present their industrial scale production of few-layer graphene by plasma method and the different techniques to properly disperse and incorporate the powder into both water based and solvent based formulations at high loadings. This resulting graphene forms part of the novel high energy density Si-based anode material developedby NanoGraf that has the long-term potential to replace graphite-based anodes in lithium-ion batteries for a range of applications, from consumer electronics to electric vehicles.

Two challenges that must be overcome to reach the potential of graphene in electronics and energy storage applications are: industrial scale quantities of high-quality graphene (properties closest to the single layer graphene) and its integration to the material composite (polymer matrix). In this presentation, PPG and Raymor will present their industrial scale production of few-layer graphene by plasma method and the different techniques to properly disperse and incorporate the powder into both water based and solvent based formulations at high loadings. This resulting graphene forms part of the novel high energy density Si-based anode material developedby NanoGraf that has the long-term potential to replace graphite-based anodes in lithium-ion batteries for a range of applications, from consumer electronics to electric vehicles.

Anonino Veca, Fulvio Cascio, Francesco Gazza, Chiara Mastropasqua, Brunetto Martorana

The global automotive industry is currently facing great challenges, such as responsibility for increasing CO2 emissions, lack of strong decarbonisation targets, and safety issues. It is also widely viewed as being the industry in which the greatest volume of advanced composite materials will be used in the future to produce light vehicles.
The study of novel composite materials, including graphene-based composites, and their potential applications in automotive industry, will be strategic for developing new lightweight and multifunctional structures for the automotive sector.

Bio

Ms Fiona Liu is Marketing Director at Gaoxi Tech, Fiona is a veteran of marketing. She has a reputation of building strong and lasting relationships with clients. Prior to joining Gaoxi Tech, Fiona held multiple international senior-level positions within banking, destination commerce marketing, and emerging technology sectors. Ms Liu completed her master degree from Macquarie University.

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Smart hydrogels containing graphene-based sensors for precision control of vertical farms to improve the crop yield and decarbonize indoor farming.

Nanoplexus’ technology enables tuneable decorations on graphene & 2D material aerogels for novel catalysts, composites and energy systems. These porous matrices possess high electrical conductivity, promising mechanical characteristics and confined microenvironments that can act as an ideal platform to stabilise active material clusters. These versatile scaffolds are synthesised through a scalable process that facilitates a greater degree of refinement for bespoke functional composites. We aim to offer an alternative outlook in the widespread use of 2D materials, yielding better performance at lower costs and building a bridge to next-generation novel composites.

Shangdong sino-graphene light alloy Co. Ltd. focuses on the research，production, sales and related technology transfer and services of nano-phase reinforced nonferrousmetal matrix composite materials. The sino-graphene light alloy team is the first batch of teams in China to apply graphene to the field of metal matrix composites, and has domestic independent intellectual property rights in the nano-reinforced metal matrix composite series. After years of technological incubation, the company has successfully broken through the low-cost, large-scale, designable production of high-strength and high-toughness aluminum composites, high-strength and high-conductivity aluminum composites，high-conductivity and high hardness copper composites and other series of graphene-enhanced metal matrix composites production technology. The production capacity is 3,000 tons of composite ingots and 2,000 tons of profiles.

Jinfeng Leng
General Manager @ Shangdong Sino-Graphene Light Alloy Co. Ltd,

Bio

Jinfeng Leng, professor of University of Jinan, obtained PHD degree from Institute of Metal Composite Materials and Engineering in Harbin Institute of Technology. As member of the Graphene Alliance Standardization Committee, she Participated in the formulation of multiple graphene material standards. She has 23 years of experiences in developing the preparation and application of high-performance aluminum alloys and composites, and published nearly 50 related academic papers in Scripta Materialia and other magazines. In the past five years, he has been the first inventor to authorize 31 invention patents for graphene composites. At present，she has also led and assumed more than 10 research projects in the National Natural Science Foundation of China and the business community, with a total amount of more than 6 million RMB. Her research group has mastered the technology of low-cost, large-scale and high-uniformity preparation of nano-reinforced metal matrix composites，and promoted the commercialization of nano-reinforced metal matrix composites. Based on the results of this research, She founded sino-graphene light alloy Co.,Ltd. in 2019,continued to develop and produce nano-metal matrix composite materials in in aerospace, rail transit, automobiles, wire and cable etc.

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Bio

Engineer, Politecnico di Milano - Executive MBA, MIP - Former Director of Innovation and Digital Transformation in Altromercato - R&D, AF&C, HC, Strategy, Innovation, Marketing in Honeywell, Fastweb (Swisscom Group), Axess TMC (Zucchetti Group), Board Member at InnoVits, Co-Fonder at Grycle

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Global experience with Fortune 100 companies in the development and launch of advanced technology

Carbon Nanomembranes (CNMs) are a molecular thin, carbon-based 2D-sheet material complementary to graphene. Their properties (dielectric, easy chemical functionalisation, intrinsic porosity, …) are rather comparable to ultrathin polymeric films. A variety of production methods - from large area CNM-composite membranes to CMOS-compatible integration into devices - is feasible. Since CNMs are highly permeable for water, while blocking anything else, they can enable a hitherto non-attainable separation efficiency compared to existing membrane technology. CNM-composite membranes can be used in forward osmosis for cold concentration of watery solutions in the food&beverage or the fragrances&aroma industry. As reverse osmosis membranes they can filter last amounts of salt, heavy metals or small organic molecules for the provision of ultrapure water in the semiconductor or pharma industry. Other applications of CNMs are in sensor technology, energy and semiconductor manufacturing.

Albert Schnieders
CEO @ CNM Technologies
Bio

Dr. Albert Schnieders is co-founder and managing director of CNM Technologies, a high-tech company, which produces molecular thin, functionalized carbon nanomembranes (CNMs) and develops together with its customers innovative applications of CNMs in a diverse field of industries. Focus technologies are water filtration.as well as semiconductor production and sensor technology. Albert earned his degree in physics at the University of Münster, Germany. After working as a postdoctoral researcher at the Universities of Utah and Delaware, he worked for the US subsidiaries of two German high-tech companies: Tascon, a contract laboratory specializing in chemical surface analysis, and the scientific instrument manufacturer ION-TOF. Albert left both companies and the USA end of 2011 to start CNM Technologies

Wearable electronics have great potential to create better health and wellbeing for the many through the application of new technologies. However, rigid electronics still dominate the wearables sector, making them unsuitable for daily use. Truly wearable devices need to match the elasticity of the skin, show breathability, comfort and be easy to clean. What if we could develop breathable, washable, energy-harnessing and biocompatible electronics that meet these criteria. This presentation will share the latest developments of a new class of washable, breathable and skin-compatible electronic components based on natural fibres such as cotton and cellulose and 2D materials. These materials are engineered by using techniques from nanomaterials, 2D materials and organic electronics, creating new platforms for intuitve sensing. These novel textiles have applications in broad areas such as healthcare, wellbeing, IoT, lighting and sensing. Finally, I will give share my vision for the future development of 2D materials for wearable electronics.

Felice Torrisi
Lecturer @ Imperial College London
Bio

Felice Torrisi is a Lecturer in 2D materials and Wearable Bioelectronics in the Department of Chemistry and Fellow of Trinity College, Cambridge. He previously held a University Lectureship in Graphene Technology in the Department of Engineering at the University of Cambridge, where he jointly managed the Centre for Doctoral Training in Graphene Technology and the Cambridge Graphene Centre. He graduated at the University of Catania, Italy, after a research period at the Institute of Microelectronics and Microsystems of the Italian National Research Council. Before moving to Imperial College, he worked in the Department of Engineering at the University of Cambridge as a PhD student, then as a Research Fellow and finally as a Lecturer. His research interests span from printed and flexible electronics to photonics with graphene and 2D materials, with particular focus on energy, sensing, wearable electronics and bioelectronics.

This presentation overviews the current graphene sheet (CVD graphene) market and industry, in 2021. We'll shortly discuss CVD graphene's properties, and then look into the current applications, market and producers in 2021.

After a decade of extensive research, 2D materials and specially graphene have been expected for a long time to disrupt many fields and industries. However, there are still no truly graphene-based products in the marketplace, specially regarding CVD-graphene. We believe that a combination of factors are to blame, and that the CVD-graphene technology is actually mature enough for certain applications to enter the market and pave the way for this material to be ubiquitous.
In this session, the past and current state-of-the-art semiconductor landscapes will be discussed, with obvious emphasis towards the integration of single layer, CVD-grown graphene into semiconductor workflows. The Graphenea Foundry and its unique vertical integration manufacturing scheme will be introduced and discussed, as well the fabrication of graphene-based devices at the wafer scale; this establishes a solid platform for graphene technologies to be prototyped, developed, scaled up and commercialised.

In recent years, graphene has shown great promise as an active material for bioelectronics, including in vitro and in vivo applications. It combines optical transparency, electrical sensitivity and biocompatibility. I will present the use of monolayer graphene on polymer, and will detail the industrial applications envisaged by Grapheal in the case of wound treatment and field diagnostics.

On the industry’s path to a new generation of display performance and manufacturability, it encountered a roadblock: thin film transistor performance and manufacturability. As in the VLSI semiconductor industry before it, the display industry chose to focus on improving semiconductor material performance to break through the roadblock - moving from silicon to higher performance semiconductor materials. The plan was simple: better semiconductor + same transistor structure and materials = better TFTs. After 20 years of research and development, the semiconductor path around the roadblock has failed; it has provided about one-third of the required advances in performance, device size and manufacturability.

Bio

Dr. Sanna Arpiainen a principal scientist and team leader at VTT Ltd and coordinates the graphene and 2D materials research and commercial offering at VTT, with special focus on CVD graphene based applications in biosensing, photonics and electronics. She made her PhD on graphene and photonic crystal integration on microelectronics processes for Aalto University in 2015. Her background is in optical MEMS, photonics integration, nanotechnology and materials research. She is the PI of several national and international research projects on graphene sensors, photonics and integration, and acted as the chair of the Graphene Week 2019 in Helsinki, Finland.