Ford To Reduce Noise Using Graphene Starting With The F-150 And Mustang

Ford will use graphene to reduce noise, lower weight, and improve heat conductivity in its vehicles.

Graphene is considered a bit of a wonder material, and while it hasn’t hit the mainstream market (yet), it does enjoy some limited use in select industries. It is 200 times stronger than steel and one of the most conductive materials in the world.

By collaborating with Eagle Industries and XG Sciences, Ford has been able to incorporate graphene in fuel rail covers, pump covers and front engine covers. Ford mixes the graphene with foam constituents and says that it results in a 17 per cent reduction in noise, a 20 per cent improvement in mechanical properties, and a 30 per cent improvement in heat endurance properties compared to foam that doesn’t incorporate graphene.

“We are excited about the performance benefits our products are able to provide to Ford and Eagle Industries,” XG Sciences chief executive Philip Rose said.

“Working with early adopters such as Ford Motor Company demonstrates the potential for graphene in multiple applications, and we look forward to extending our collaboration into other materials, and enabling further performance improvements.”

Ford began studying how to use graphene for various automotive applications in 2014. Unlike most solutions to reduce unwanted noise, graphene doesn’t add weight but actually reduces it.

The car manufacturer will introduce graphene elements on the Ford F-150 and Mustang by the end of the year. The material will then be introduced throughout Ford’s range.

Graphene was first isolated using a piece of tape to pull off layers of graphite from a pencil lead, creating a material that is just a single layer thick.

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Effects of carbon-based nanomaterials on seed germination

Bioenergy crops are an attractive option for use in energy production. A good plant candidate for bioenergy applications should produce a high amount of biomass and resist harsh environmental conditions. Carbon-based nanomaterials (CBNs) have been described as promising seed germination and plant growth regulators. In this paper, we tested the impact of two CBNs: graphene and multi-walled carbon nanotubes (CNTs) on germination and biomass production of two major bioenergy crops (sorghum and switchgrass). The application of graphene and CNTs increased the germination rate of switchgrass seeds and led to an early germination of sorghum seeds. The exposure of switchgrass to graphene (200 mg/l) resulted in a 28% increase of total biomass produced compared to untreated plants. We tested the impact of CBNs on bioenergy crops under salt stress conditions and discovered that CBNs can significantly reduce symptoms of salt stress imposed by the addition of NaCl into the growth medium. Using an ion selective electrode, we demonstrated that the concentration of Na+ ions in NaCl solution can be significantly decreased by the addition of CNTs to the salt solution. Our data confirmed the potential of CBNs as plant growth regulators for non-food crops and demonstrated the role of CBNs in the protection of plants against salt stress by desalination of saline growth medium.

The use of fossil fuels has accelerated since the dawn of the industrial revolution and demand will increase dramatically in response to an ever-increasing population and by a higher need for energy by mechanization [1]. It is reported that the energy demand will be increased by more than 50% due to rapid progress in all sectors including infrastructure development by the year 2025 [2]. However, the predominant fossil fuel power source is restricted [3]. Limited resources, controversy, environmental concerns and frequently increasing prices associated with the fossil fuels underscore the need to develop an alternative source of energy [4]. For this reason, scientists are looking to bioenergy as a complement to fossil fuels. The concept of bioenergy refers to new alternate renewable energy from biological materials that can generate heat, electricity and transportation fuels [5]. Any plant materials that are used to produce energy are referenced as bioenergy crops. Bioenergy crops are mainly cultivated for power generation including electricity, heat, and liquid fuels for transportation of motor vehicle [6]. Moreover, growing practice of bioenergy crops helps to reduce our dependence on existing fossil energy, reduce global warming by lowering the greenhouse gas, as well as creates job opportunities for thousands of people globally [7]. Bioenergy crops can be cultivated in marginal soils as an energy source due to their potential for a higher amount of biomass production [8] with a low requirement for fertilizers and irrigation. Currently, many countries (mainly Europe, USA, Brazil and Australia) have implemented policies to encourage energy production from plants. It is estimated that about 273–1381 EJ/energy is provided by bioenergy [9]. Early seed germination with higher germination rate, fast growth, and development, larger biomass yield, and tolerance to stresses are pivotal features of potential bioenergy crops [10].

The productivity of plants, including bioenergy crops, is limited by several critical factors such as genetic potential, biotic, abiotic, and nutritional stress. Thus, the search for new technologies that can lead to the enhancement of plant productivity is a constant task. It was demonstrated recently that certain nanomaterials may regulate productivity by the enhancement of plant growth [11]. Our laboratory discovered that a wide range of CBNs in low doses can activate seed germination [11], plant growth, and development of model plants as well as crop species such as barley, corn, and soybean [11–17]. The uptake and accumulation of CBNs in exposed plant tissues was confirmed using microscopy (TEM) and spectroscopy (Raman Spectroscopy) [12, 15, 17]. Recently, the exact concentration of CBNs absorbed by exposed plants including carbon nanotubes and carbon nanohorns was measured by the microwave induced heating (MIH) technique in different plant organs [16, 18]. The documented presence of nanomaterials used as plant growth regulators can be taken as an alarming sign of a possible transfer of CBNs in the food chain by consumption of crops contaminated with nanomaterials. Thus, the potential toxicity of CBN-contaminated food derived from agricultural crops exposed to CBNs has to be investigated experimentally. However, concern about the safety of use of CBNs for plant growth regulation can be less significant if nanomaterials will be applied to non-food plant species such as bioenergy crops which are not subject to food consumption. Here, we describe the efficiency of two types of CBNs, graphene and multi-walled CNTs, for regulation of seed germination and activation of biomass production of two different bioenergy crops Sorghum bicolor L. Moench and Panicum virgatum L. We also made an attempt to understand how the application of CBNs will affect the abiotic stress response of exposed bioenergy species. It was previously reported that carbon nanotube membranes are efficient for desalination of salty water [19, 20]. It is well known that salt stress is one of the major abiotic factors that limits sustainable crop production throughout the world [21]. A higher level of soil salinity limits seed germination as well as growth and development of plants [22]. Salt stress is responsible for the reduction of the tremendous amount of biomass accumulation of energy crops (Miscanthus × giganteus) [23]. Salinity not only adversely affects plant productivity but also quality. More than 20% of agricultural land is already damaged by salinization due to poor drainage system and irrigation of salty water [24]. Here, we demonstrated that CBNs (CNTs) added to growth medium can significantly reduce symptoms of salt stress in bioenergy crops exposed to salt stress by removal of toxic Na+ ions from salt solution. Fig 1 illustrates the experimental design for a study focused on the effects of CBNs on germination, growth and stress response of sorghum and switchgrass.


The effects of CBNs in seed germination, growth, and development of bioenergy crops. The seeds of sorghum and switchgrass were exposed to graphene or multi-walled CNTs by addition to the growth medium. Germination and plant growth between CBN-treated and control bioenergy crops were calculated. The quantification of multi-walled CNTs inside the shoots of matured bioenergy crops was performed using the microwave induced heating (MIH) technique. For salt stress experiments, seeds were exposed to growth medium supplimented with NaCl and different concentration of CNTs or graphene (50, 100, 200, 500, 1000 μg/ml) and germination and seedling growth was monitered. The physical interaction between multi-walled CNTs and ions (Na+ or Cl¯) presented in salty solutions supplemented with CNTs was confirmed by measuring the electrode potential using ion-selective electrodes.

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Graphene Wheel Chair

küschall employs formula 1 to perfect ‘world’s lightest wheelchair’ made from graphene

küschall has designed and developed what is claimed to be the ‘world’s lightest wheelchair‘. the switzerland-based company utilizes aerospace materials to create the ‘superstar’ which features a 1.5kg frame – 30% lighter and 20% stronger compared to classic carbon models.

the küschall superstar is built using a semi-metal known as graphene, the strongest material known to man. graphene is 200 times stronger than steel and 10 times tougher than diamond, but still incredibly flexible and ultra-lightweight. it is made up of a single layer of carbon atoms, tightly bound in a hexagonal lattice.

the design aims to combat the 50-70% of wheelchair users who end up with upper extremity injuries after the first 10-15 years. in order to ease these chances the wheels have been positioned in closer proximity to the user which helps to increase propelling efficiency.

industrial designer and project leader for the company, andre fangueiro, worked with formula 1 manufacturers to perfect the driving performance of the superstar. the wheelchair features an X-shape geometry with road dampening properties that provides an increase in performance and agility by responding rapidly to every movement. it also features a bespoke backrest with the possibility for a tool less adjustment, and a tailor made seat with an integrated seat cushion to also help optimize propelling performance.

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Introduction to Graphene Science and Technology Course Offered Online

Hello Graphene Learners,

The next run of ChM001x Graphene Science and Technology begins on October 31! We are glad to share this news with you, the students who made the earlier run of ChM001X so successful.

For this run we’ve updated some of the content, as well as gone through the assignments, but you will recognize most of it from the previous time. Also, you now have the opportunity to earn a Verified certificate from the course!

Perhaps you want to share the Graphene experience with a friend or colleague, earn an ID-verified certificate of achievement, or work through course content that you weren’t able to complete before. When ChM001x is offered in 6 weeks, we welcome you to join the community of learners again.

To learn more and to enroll, visit the Graphene Science and Technology page.

We hope to see you in the course,

Jie Sun, Associate Professor, and the course staff
Chalmers University of Technology

P.S. Also check out our other upcoming courses:
Starting October 31System Design for Supply Chain Management and Logistics,
Starting November 1Computer System Design: Improving Energy Efficiency and Performance.

Canadian Graphene Conference Set for October 18-20 in Montreal

The Graphene Canada conference is set for Montreal, Quebec on October 18th to 20th at the Centre Mont-Royal.

The conference is organized by Spanish company, Phantoms Foundation, which specializes in scientific conferences/workshops on Nanoscience & Nanotechnology.  It’s why the Canadian conference registration fees are in Euros. One of the founders of Phantoms Foundation, Dr. Antonio Correia, is also one of the invited speakers. Forty speakers are presenting at the conference but only ten are from Canada. Eighteen are from Europe, seven are from Asia and five from USA.

The ten Canadian speakers represent eight universities and one company. Universities represented include Queen’s University, University of Western Ontario, University of Toronto, McGill University, University of Ottawa, Université Laval, Ecole Polytechnique de Montreal, University of Waterloo.

Areas of interest based on Abstracts are as follows:

Aiping Yu (University of Waterloo, Canada)
Advanced Li-Ion Hybrid Supercapacitors Based on 3D Graphene- Foam Composites

Jean-François Morin (Université Laval, Canada)
Photochemical Bottom-up Synthesis of Nanographenes and Graphene Nanoribbons

Jean-Luc Meunier (McGill University, Canada)
A thermal plasma route for the generation and functionalization of highly crystalline graphene structures and stable nanofluids

Pawel Hawrylak (University of Ottawa, Canada)
Photonics, electronics and spintronics with graphene quantum dots

Tobin Filleter (University of Toronto, Canada)
Mechanical Behavior of Graphene Oxide

Giovanni Fanchini (The University of Western Ontario, Canada)
Graphene thin films and their interaction with metallic nanoparticles: materials, characterization and applications

Marc M. Dignam (Queen’s University, Canada)
Third Harmonic Terahertz Generation in Monolayer and Bilayer Graphene

Florina Truica (Alcereco Inc, Canada)
Solvent effects control of the wettability behaviour of graphene thin films

ALCERECO is an Advanced Materials development company, part of the Grafoid group. Grafoid is the major Canadian organizer of the Conference. Grafoid is a graphene research and development company based out of Kingston, Ontario and is partnered with Focus Graphite. They have pilot plant scale production and R&D facilities in Singapore, they also host  laboratories and production facilities at Queen’s University.

Exhibitors include NanoXplore, a Montreal based graphene producer; NanoIntegris a Quebec based supplier of High-Mobility Semi-Conductive Ink;  Abalonyx, a Norwegian company which produces and sells single layer graphene oxide.

$20M Contest for Solution to Convert Carbon Emissions into Usable Products – 47 Entries from 7 Countries

[ed. at least one of the teams is working on a graphene solution, we’ll follow that story in future articles]

47 Entries from 7 Countries Compete to Convert CO2 into Valuable Products; World Leading Chemical, Biomolecular and Energy Experts to Advise in Global Innovation Challenge

LOS ANGELES (July 27, 2016) XPRIZE, the world’s leader in designing and managing incentive competitions to solve humanity’s grand challenges, today announced a total of 47 entries from seven countries will contend to win the $20M NRG COSIA Carbon XPRIZE, a global competition to develop breakthrough technologies that convert the most CO2 into one or more products with the highest net value. Competing teams hail from Canada, China, India, Finland, Switzerland, Scotland and the United States. An Advisory Board of nine leading experts in the fields of chemical and biological engineering, energy and sustainability and public policy, also announced today, will advise the Carbon XPRIZE.

The NRG COSIA Carbon XPRIZE, launched in September 2015, addresses global CO2 emissions by incentivizing innovative solutions to convert CO2 from a liability into an asset. The 4-½ year competition will include two tracks, with the new technologies tested at either a coal power plant or a natural gas facility. Among the teams competing are leading carbon capture technology companies, top-tier academic institutions, non-profits, new startups and even a father and son team. A complete listing of teams competing in Round 1 is posted on the XPRIZE site.

“These teams, as well as our advisory board, represent an exciting mix of talent with expertise across a broad spectrum of sciences that will be applied to create technologies that mitigate CO2 emissions globally,” said Paul Bunje, Ph.D., principal and senior scientist, Energy and Environment group at XPRIZE. “Such widespread interest and support demonstrates an unwavering global commitment to take a radical leap forward to address climate change.”

“NRG’s sponsorship of XPRIZE accelerates the development and use of carbon capture technologies that help to address climate change,” said Ben Trammell, SVP, Engineering & Construction at NRG. “By crowdsourcing the best minds, XPRIZE and its sponsors are transforming a waste product and cleaning the planet. This prize gets a much-needed dialogue started with experts from around the world, with diverse backgrounds, all to help turn CO2 into a positively viewed byproduct.”

“The Carbon XPRIZE is harnessing global innovators to reimagine carbon and change it from a liability into a resource, from a waste into a valuable product. As a scientist, I know from experience that when you focus a challenge and incentivize smart people to think about how to address that challenge from different angles and different perspectives, good things happen,” said Dan Wicklum, COSIA chief executive. “COSIA is excited about what’s going to come out of this challenge – good things are going to happen.”

The $20M NRG COSIA Carbon XPRIZE features three rounds of competition. In Round 1, each team submitted project documents surrounding technical and business viability assessments of its approach, and independent panel judging underway. Up to 15 semi-finalist teams in each track are scheduled to be announced on Oct. 15, 2016. Round 2 enables teams to demonstrate their technologies in a controlled environment using a simulated power plant flue gas stream, with up to five teams in each track moving forward and sharing a $2.5 million milestone purse. The third round entails larger scale technology demonstration under real world conditions, with access to two test centers adjacent to existing power plants. In each track, the winner will be awarded a $7.5 million grand prize.

In addition to finalizing the overall competitor pool, the Carbon XPRIZE announced the formation of an advisory board of academic and industry experts that bring diverse expertise in their fields. The advisory board includes:

  • Lynden A. Archer, William C. Hooey Director of the School of Chemical and Biomolecular Engineering, James A. Friend Family Distinguished Professor at Cornell University, and the co-director of the KAUST-Cornell center for energy and sustainability.
  • Michele Aresta, professor of inorganic chemistry at the University of Bari, Italy and the Isaac Manasseh Meyer Chair Professor, National University of Singapore;
  • Jason Blackstock, department head and senior lecturer in the Science and Global Affairs Department of Science, Technology, Engineering and Public Policy at the University College London;
  • Subodh Gupta, chief of research and development at Cenovus Energy;
  • Eddy Isaacs, co-chair of the Energy Technology Working Group of the Canadian Council of Energy Ministers and former chief executive officer for Alberta Innovates – Energy and Environment Solutions;
  • Janet Peace, senior vice president of policy and business strategy at the Center for Climate and Energy Solutions (C2ES), who also manages the center’s Business Environmental Leadership Council (BELC);
  • Peter Styring, chair of the CO2Chem Network, director of research for chemical and biological engineering, professor of chemical engineering and chemistry, and professor of public engagement at the University of Sheffield;
  • Ben Trammell, senior vice president of engineering and construction for NRG;
  • Jennifer Wilcox, associate professor of chemical and biological engineering at the Colorado School of Mines.

For more information, visit and read Dr. Bunje’s latest blog post here.

XPRIZE, a 501(c)(3) nonprofit, is the global leader in designing and implementing innovative competition models to solve the world’s grandest challenges. Active competitions include the $30M Google Lunar XPRIZE, the $20M NRG COSIA Carbon XPRIZE, the $15M Global Learning XPRIZE, the $10M Qualcomm Tricorder XPRIZE, the $7M Shell Ocean Discovery XPRIZE, the $7M Adult Literacy XPRIZE, the $7M Barbara Bush Foundation Adult Literacy XPRIZE and the $5M IBM Watson AI XPRIZE. For more information, visit

About the NRG COSIA Carbon XPRIZE
Few challenges are greater and more critical than ensuring access to clean, affordable and abundant energy. As the global energy supply remains primarily derived from fossil fuels – the leading contributor to climate change – the $20M NRG COSIA Carbon XPRIZE will challenge the world to reimagine what we can do with CO2 emissions by incentivizing and accelerating the development of technologies that convert CO2 from a liability into valuable products. For more information, visit:

About NRG
NRG is the leading integrated power company in the U.S., built on the strength of the nation’s largest and most diverse competitive electric generation portfolio and leading retail electricity platform. A Fortune 200 company, NRG creates value through best in class operations, reliable and efficient electric generation, and a retail platform serving residential and commercial businesses. Working with electricity customers, large and small, we continually innovate, embrace and implement sustainable solutions for producing and managing energy. We aim to be pioneers in developing smarter energy choices and delivering exceptional service as our retail electricity providers serve almost 3 million residential and commercial customers throughout the country. More information is available at Connect with NRG Energy on Facebook and follow us on Twitter @nrgenergy.

COSIA (Canada’s Oil Sands Innovation Alliance) is an alliance of 13 oil sands producers, representing 90 percent of production from the Canadian oil sands. COSIA’s vision is to enable responsible and sustainable development of Canada’s oil sands as a global energy source while delivering accelerated improvement in environmental performance through collaborative action and innovation in the areas of greenhouse gases, land, tailings and water. Since COSIA’s inception in 2012, COSIA member companies have shared 814 distinct environmental technologies and innovations that cost almost $1.3 billion to develop. For more information, please visit


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Graphene Exhibition at the Museum of Science and Industry in Manchester Open Until June 2017

What’s invisible to the human eye, thinner than a human hair and 200 times tougher than steel? Graphene.

First isolated by scientists at the University of Manchester back in 2004, graphene is made from a single atom layer of carbon. It is super lightweight, super conductive and super strong.

This 21st century wonder material has the potential to radically reshape the way we think, design and manufacture in a host of areas – from racing cars to rust-free paint, from mobile phones to medical science.

In this groundbreaking exhibition, discover the history of graphite and graphene, journey with scientists and artists exploring the cutting edge of material technology and immerse yourself in the wonders of a two dimensional world.

Join us from 23 July to set your mind free, imagine the future and discover why bigger isn’t always better.

Wonder Materials: Graphene and Beyond is a world premiere, created by the Museum of Science and Industry, in partnership with the National Graphene Institute at The University of Manchester.

Suitable for ages 5+, free entry.

23 July 2016 – 25 June 2017, 10am to 5pm
Recommended for ages 5 and older
Temporary Exhibition Space, First Floor,
Great Western Warehouse

Read more about the design of the exhibit at

Researchers use graphene to improve polymeric coatings

Graphene Oxide Nanoparticles increase Protective Properties of Epoxy-based Anticorrosive Coating

TEHRAN, Aug. 02 (MNA) – Iranian researchers from Institute for Color Science and Technology improved the anticorrosive properties of polymeric coatings by using graphene and creating nanocomposite structures.

Annually, countries spend a large amount of money on corrosion prevention and repairing the damages due to corrosion. Anticorrosive coatings are used to prevent and reduce the above mentioned costs. Organic coatings are widely used to protect metals against corrosion. Epoxy coatings have desirable protective properties in corrosive media due to its unique characteristics. However, the coating is not able to conserve its protective ability for a long time in contact with corrosive media. According to Iran Nanotechnology Initiative Council (INIC), graphene oxide nanoparticles have been used in this research to create nanocomposite structure and increase protective properties of epoxy-based anticorrosive coating.

The use of synthetic nanocomposite coatings for the coating of onshore devices and equipment and in petrochemical units reduces expenses due to the corrosion, and increases the life of equipment, including pipelines.

Graphene oxide-based nanoparticles have recently attracted the attention of researchers due to their unique properties. However, these materials are not compatible or stable in the majority of organic solvents. Therefore, surface modification process should be carried out on these materials by using amine compounds. The nanosheets are able to prevent the diffusion of corrosive agents into the coating or to postpone the diffusion for a while due to their very high specific area. Therefore, the life of the coating increases significantly.

Results of the research have been published in Corrosion Science, vol. 103, 2016, pp. 283-304.

BAC Mono is first to use 'revolutionary' graphene material

Graphene-enhanced Carbonfibre Used in British Sports Car

The BAC Mono has claimed a world first by making use of a revolutionary new substance called graphene.

The model’s British maker has trialled the new lightweight material in the rear arches of its single seater Mono supercar and says it has the potential to offer serious performance and cost benefits for customers.

Graphene is made from sheets of carbon just one atom thick. It’s lighter and stronger than carbonfibre, which BAC says could mean weight reductions of 20% – a figure that could have significant impacts on performance, fuel economy and cost.

BAC has worked with Haydale Composite Solutions on the trial, which used graphene-enhanced carbonfibre, and decided to focus on the rear arches because of their size and complexity, which allowed the material and manufacturing process to be thoroughly tested. The car was showcased at the Science in the City festival in Manchester.