Beech R.,Angstron Materials, Inc
Nanotechnology Law and Business | Year: 2011
Graphene is no longer just a topic for physicists and chemists to discuss at conferences. The material is making the transition from research journals to commercial applications. The speed of this transition is driven by its unique properties and the ability of manufactures to provide materials in large volumes. This article discusses the history of graphene and its applications, and compares graphene to other nanomaterials. Graphenes competitors include carbon nanotubes and established materials such as carbon black, carbon fibers, nano clays, and glass fibers. The article also discusses a new class of nanomaterial now commonly referred to as "nano graphene platelets.".
Agency: National Science Foundation | Branch: | Program: STTR | Phase: Phase I | Award Amount: 150.00K | Year: 2009
This award is funded under the American Recovery and Reinvestment Act of 2009 (Public Law 111-5). This Small Business Technology Transfer Research Phase I project is directed toward the rapid, large-scale production of pristine nano graphene platelets (NGPs) ? an emerging class of nano materials expected to have a revolutionary impact on nanotechnology. NGPs exhibit exceptional properties as do carbon nanotubes (CNTs), but can be mass-produced at much lower costs. NGPs exhibit the highest intrinsic strength and highest thermal conductivity of the existing materials. Highly conductive graphene will find practical applications in nanoelectronics, transparent and conductive coating (e.g., as a replacement for ITO glass), supercapacitor, battery electrode, fuel cell bipolar plates, thermal interface materials, and conductive nanocomposite. The total potential market size for conductive nano fillers/nanocomposites is forecast to reach $5 billion ($550M for automotive components alone) by 2013.
News Article | January 12, 2015
Angstron Materials is very proud to be featured on the show Trending Today on the Discovery Channel. This show, airing Thursday, January 29 at 7:30 AM EST, will feature interviews with Angstron’s CEO, Dr. Bor Jang along with three other Angstron employees. The segment will touch on select portions of Angstron’s technologies and capabilities. Special emphasis will be placed on the history and background of the company, on graphene based thermal management materials, and on energy storage opportunities for graphene materials. Future featurettes will include segments on graphene nanocomposites and other related topics so check back to learn about these technologies as well! Trending Today features experts, front-line industry advancements, innovative technologies, product solutions, and trends in health, wellness, culinary, cuisine, luxury, leisure, recreation, manufacturing and more. A series that above all, presents an informative perspective on consumer and professional product and service trends. Angstron Materials, founded in 2007, is a leading manufacturer of graphene and graphene oxide materials. Having begun producing graphene materials in the late 2000’s, Angstron now has one of the largest graphene and graphene oxide production capacities in the world; approximately 300 metric tons per year. Along with the mass production of the raw graphene materials, Angstron is dedicated to using their expertise in graphene materials to develop other advanced materials and solutions such as nanocomposite masterbatches, energy storage solutions, thermal management and thermal interface materials, transparent conductive films, and anti-corrosion and barrier coatings and paints. The Angstron team is led by Dr. Bor Jang, a pioneer in advancing the field of nano-graphene platelets. In addition to NGPs, Dr. Jang is a leading expert in the research and development of low-cost carbon nanomaterials, batteries, supercapacitors, and fuel cells with nearly 100 inventions to his credit and close to 90 patents. For more information on our product offerings, please click here. We are always interested in new and exciting uses for our graphene materials. With graphene’s high thermal and electrical conductivity, its inherent impermeability to gases, its mechanical properties, and its ability to be incorporated into other materials, there are a huge number of applications for this material. With hundreds of customers in over 35 countries, we, at Angstron, are dedicated to helping our customers utilize graphene in their application and to bringing graphene and graphene-enhanced products into commercial and industrial applications. Call us at 1-937-331-9884 or email us here to learn more or suggest your application.
News Article | October 27, 2014
Starting November, 2014, Angstron Materials, Inc., a leading graphene manufacturer, is very pleased to be able to offer masterbatches of graphene enhanced polymers for a wide range of applications. Graphene loaded nanocomposites are able to offer superior mechanical properties, enhanced electrical and thermal conductivity, improved dimensional stability, higher resistance to micro-cracking, and increased barrier properties above the base polymer. Furthermore, through Angstron’s extensive knowledge in graphene enhanced systems, we are able to identify the optimal graphene enhanced formulation to achieve the end users requirements. Angstron can provide the graphene masterbatch material in a pellet form or as a strand for use in FDM 3-D printing. While graphene has been known to offer significant performance improvements to many polymer systems, many end users do not have the expertise or equipment necessary to properly disperse the graphene into polymer systems. Angstron has at its disposal, a team of composite scientists and engineers with close to 100 years of combined experience in composite formulation, manufacturing, and application. This experience pairs perfectly with the world class team of researchers, engineers, and technicians dedicated to producing, optimizing, and utilizing Angstron’s graphene materials in a wide range of applications. Using in-house compounding equipment, Angstron is able to masterbatch material to order in a timely manner. Furthermore, through our composite industry contacts, we are able to rapidly scale up nanocomposite compounding to meet industrial demand. Angstron Materials continues to develop and roll out new graphene and graphene enhanced products. Already a world leader in the large scale production of graphene, Angstron is dedicated to identifying and addressing real world applications where graphene offers a strategic and economic advantage over traditional solutions. Angstron’s main product thrusts include graphene and graphene oxide mass production, nanocomposite masterbatches, energy storage solutions, thermal management and thermal interface materials, along with anti-corrosion and barrier coatings and paints. For more information, please see our product page or contact us.
Agency: National Science Foundation | Branch: | Program: STTR | Phase: Phase II | Award Amount: 500.00K | Year: 2011
This Small Business Technology Transfer (STTR) Phase II project aims to develop a method for rapid, direct and large-scale production of pristine nano-graphene platelets (NGPs). A combined molecular dynamic, macroscopic modeling and experimental approach will be used to (1) further improve the understanding of the underlying principles behind effective peeling of single-layer graphene sheets from graphite particles in selected liquid mediums, and (2) to clearly determine the most critical processing conditions that govern the graphene production rate in a continuous processing reactor. The broader/commercial impacts of this project will be the potential to offer a cost-effective method to produce pristine nano-graphene in large quantities. NGPs are of exceptional scientific and technological significance. The ability to produce large-volume pristine nano-graphene will have a profound impact on the evolution of nano-graphene science and technology. Highly conductive graphene may find practical applications in transparent and conductive coating, supercapacitor, battery electrode, fuel cell bipolar plates, and conductive nanocomposite.