Graphene

This paper considers how graphene additions may improve mechanical and barrier performance in polymer-based materials while supporting lightweight designs. It notes that dispersion, processing and application-specific validation remain important.

NanoMalaysia Bhd and an Indonesian partner have launched an NMC-graphene lithium-ion pouch cell at a conference, marking a step toward industrial-scale battery production in the region.

NanoMalaysia Bhd and Indonesia’s National Battery Research Institute unveiled the Nusantara Battery, a graphene-infused lithium-ion battery, at the ASEAN Battery Technology Conference in Sepang.

Graphene Manufacturing Group has rebranded its graphene battery cells to highlight their fast-charging and long-lasting features, collaborating with partners including the University of Queensland and Rio Tinto.

Graphene Manufacturing Group Ltd signed an exclusive MOU with Alstom to develop graphene products for rail HVAC systems.

Researchers at Texas A&M University have developed a process to convert methane into graphene oxide using a nonthermal plasma-water interface, potentially reducing production costs.

NanoMalaysia (NMB) is set to begin small-scale production of a graphene-enhanced lithium-ion battery for electric vehicles at its 15,000-square-foot facility in Sepang, Malaysia. By incorporating graphene instead of graphite, the battery aims to triple energy storage capacity, which could significantly enhance the performance of carbon-based materials in EV applications.

Researchers at Texas A&M University have developed a scalable process to produce graphene oxide from methane, a component of natural gas. This advancement could lower the cost of graphene oxide production, enhancing its availability for use in batteries, coatings, and electronics.

Over a ten-year horizon graphene-based energy storage undercuts lithium alternatives once maintenance, replacement cycles and performance degradation are counted, not just the upfront purchase price.

Turquoise Group has achieved Verified Graphene Producer® status, confirming its capability to produce 30 tonnes of high-purity few-layer graphene annually at its Brisbane facility. This certification enhances the company's credibility in delivering high-quality graphene, a material crucial for applications in coatings, composites, and energy storage.

Researchers at Tohoku University have developed a covalent organic framework (COF)-graphene interlayer that significantly reduces polysulfide shuttling in lithium-sulfur batteries, achieving a high reversible capacity of 1455.7 mA h g⁻¹ at 0.2 A g⁻¹. This advancement is crucial for the practical deployment of lithium-sulfur batteries, as it addresses the long-standing challenge of polysulfide migration, potentially leading to more efficient and durable energy storage solutions.

Researchers at Tohoku University have developed a graphene-based interlayer for lithium-sulfur batteries that maintains capacity over 1,000 charge-discharge cycles. This advancement addresses the polysulfide shuttle effect, enhancing the lifespan and efficiency of lithium-sulfur batteries, which are seen as a promising alternative to lithium-ion technology due to their higher energy storage potential.

Researchers at Texas A&M University have developed a new method to produce graphene oxide from methane using a plasma-based reactor, which simultaneously generates hydrogen as a byproduct. This scalable approach could reduce reliance on graphite for graphene oxide production, offering a cost-effective alternative for applications in batteries, electronics, and advanced manufacturing.

Avadain has increased its crowdfunding cap to $3.75 million to support its graphene production initiatives. This funding boost is significant for the advanced carbon materials sector as Avadain's graphene has the potential to replace silver in printed electronics and mined graphite in battery anodes.

Sparc Technologies announced the expansion of its graphene additive range with a product line called Sparces on June 29, 2026. The move broadens the company's graphene additive offerings, which are relevant to composite and materials manufacturers seeking graphene-based performance enhancements.

Sparc Technologies launched SparcES™, a graphene additive range for ESD and conductive coatings targeting data centres, semiconductor facilities and EV battery plants, following 24 months of internal conductivity testing. The range positions graphene as a potential lower-dosage alternative to carbon black, graphite, carbon nanotubes and metal nanowires in a global ESD and conductive coatings market estimated at US$1.2 billion in 2026.

Researchers published findings in February 2025 in Photonics on laser power modulation of fiber coated with multilayer graphene using lithium intercalation methods. The work identifies transport-defined lithium intercalation states in multilayer graphene, which has implications for tunable graphene-based photonic and fiber optic components.

Professor Roman Gorbachev at the University of Manchester received a £1.9 million EPSRC Open Fellowship to lead a five-year project scaling van der Waals 2D material heterostructures from micrometre samples to wafer-scale fabrication using a new ultra-high vacuum platform. The work directly advances graphene and 2D materials manufacturing by targeting industrial-process compatibility and establishing a UK fabrication hub accessible to academic and industry users.

Graphene-based energy storage systems have been reported to reach energy densities up to 650 Wh/kg, compared to 150–250 Wh/kg for conventional lithium-ion batteries, according to a report focused on Italy's renewable energy storage needs. This performance gap highlights graphene's potential role in grid-scale storage applications, a key growth area for the advanced carbon materials sector.

Researchers from Cambridge, Harvard, Caltech, and the Max-Planck Institute for Polymer Research published findings in Science Advances showing that nanoconfined water's apparent chemical reactivity is driven by pressure and surface chemistry rather than confinement itself, with hydroxide ions bonding to hexagonal boron nitride walls but not to inert graphene. The work offers a design principle for tailoring water reactivity by selecting confining materials and controlling internal pressures, with direct relevance to graphene-based membranes, carbon electrodes in batteries and fuel cells, and the broader development of two-dimensional carbon and carbon-adjacent materials for electrochemical applications.

Argo Graphene Solutions Corp. (CSE: ARGO) closed a license agreement with Grapherry, Inc. on June 25, 2026, acquiring an exclusive worldwide license to Grapherry's STREAM graphene production platform in exchange for up to 11,000,000 common shares and 5,500,000 warrants, with full technology ownership transferring to Argo upon full share issuance. The deal gives Argo control over a scalable graphene production technology targeting construction, agriculture, and energy storage applications, while Grapherry's CEO Vikas Berry joined Argo's board and the company's existing CEO Scott Smale resigned.

Canada's graphene sector has developed across production, construction, filtration, printed electronics, and energy storage, with companies such as NanoXplore operating a 4,000-metric-ton-per-year facility in Montréal and firms like Zentek and Graphene Leaders Canada advancing application-specific products toward commercial deployment. The ecosystem signals a shift from materials science demonstration toward repeatable industrial use cases in carbon-based composites, conductive additives, and separation technologies, though commercial viability still depends on product qualification, standardization, and cost competitiveness against incumbent materials.

Penn State researchers converted waste PET plastic bottles into synthetic graphite by blending shredded PET with 2.5% graphene oxide by weight and applying heat treatment, producing crystallite dimensions that exceeded those of natural graphite without metal catalysts. The metal-free process reduces post-processing steps needed to achieve battery-grade purity and could supply graphitic carbon for lithium-ion anodes and hard carbon for sodium-ion batteries from a single plastic waste feedstock.

Researchers from Cambridge, Harvard, Caltech, and the Max-Planck Institute for Polymer Research used machine-learning simulations to study water confined between graphene and hexagonal boron nitride sheets, finding that confinement alone does not alter water's reactivity but that pressure and surface chemistry of the confining material are the controlling factors. For the carbon materials sector, the study establishes that graphene's chemically inert surface does not enhance water dissociation, while reactive surfaces like hBN do, offering a design principle for selecting 2D carbon and non-carbon materials in membranes, fuel cells, and electrochemical systems.

Researchers from Cambridge, Harvard, Caltech, and the Max Planck Institute for Polymer Research published findings in Science Advances showing that nanoconfined water's apparent chemical reactivity is driven by pressure and surface chemistry rather than confinement itself, using machine-learning simulations of water trapped between graphene and hexagonal boron nitride sheets. The work establishes that graphene's chemically inert surface leaves water reactivity unchanged, while reactive surfaces like hBN can actively enhance water dissociation—a design principle relevant to graphene and 2D carbon material applications in membranes, fuel cells, and electrochemical systems.

The Advanced Carbons Council published a position paper in May 2026 arguing that carbon credit financing should be redirected from geological carbon capture and sequestration toward conversion of captured carbon into advanced materials such as graphene, carbon fiber, biochar, and carbon nanotubes. The paper contends that carbon-to-materials conversion projects are commercially self-sustaining without ongoing subsidies, unlike CCS, and deliver compounding lifecycle emissions reductions across sectors including construction, aerospace, agriculture, and energy storage.

Solidion Technology (Nasdaq: STI) withdrew its previously filed Form S-1 registration statement with the SEC on June 10, 2026, citing unfavorable market conditions and deal terms. The move affects a company developing graphene-enabled silicon anodes and biomass-based graphite materials, signaling that capital access constraints may slow near-term commercialization of these advanced carbon battery materials.

Sicona Battery Technologies validated 600 Wh/kg energy density in graphene-wrapped silicon anode pouch cells at its Wollongong pilot line, achieving 1,200-cycle retention above 80 percent capacity with a 200 MWh/year scale-up targeted for late 2027. The result advances graphene's role as a structural buffer for silicon anodes, a combination the carbon materials and battery sectors have pursued to overcome silicon's volumetric expansion problem at commercial scale.

Peking University researchers developed a graphene-coated lithium metal electrode that allows solid-state batteries to retain 92% capacity after 5,000 cycles, with findings published in Joule. The graphene coating's role in suppressing dendrite growth at the lithium-sulfide electrolyte interface advances a known barrier to commercial solid-state battery adoption, with scale-up trials planned with two Chinese manufacturers for late 2026.

Graphene Manufacturing Group (GMG) submitted a Significant New Use Notice (SNUN) to the US EPA on June 2, 2026, seeking authorization to manufacture, distribute, and sell graphene coatings, lubricants, and fluids domestically in the United States, with approval expected by end of June 2027. The filing marks a shift from export-only access to domestic graphene production in the US, which could establish a local graphene supply chain for industrial applications including HVAC coatings and engine lubricant additives.

CSIC researchers developed an 18-micron graphene-polymer composite separator combining polypropylene with 0.5 wt% reduced graphene oxide, achieving 4x greater puncture resistance and a 60% reduction in thermal-runaway initiation temperatures in lithium-ion batteries. The development advances reduced graphene oxide as a functional additive in battery separators, with pilot-scale production underway alongside a Spanish cell manufacturer targeting NCM-based EV applications.

NeoGraf commissioned a new production line at its Lakewood, Ohio facility, adding 2,000 tonnes per annum of flexible graphite sheet capacity funded by a $38 million investment, bringing its total to 11,000 tonnes per annum. The expansion increases domestic supply of high-purity exfoliated graphite sheets for EV battery thermal management, where the material's in-plane thermal conductivity above 600 W/m·K at low density addresses a critical requirement for North American automotive manufacturers.

GraphEnergyTech, the University of Cambridge, Taiwan Perovskite Solar Corporation, and ITRI launched the GETPSC project to develop graphene-based electrodes as a replacement for silver electrodes in perovskite solar cells. The project targets a known barrier to commercial-scale perovskite adoption, with potential secondary applications for GraphEnergyTech's conductive carbon technology in batteries, supercapacitors, and electronics.

Levidian and Zentek have signed an agreement to explore building a graphene-integrated manufacturing facility in the Middle East, combining Levidian's methane-derived graphene production with Zentek's graphene-enhanced air filters. The deal signals growing regional demand for graphene-enhanced products and positions the Middle East as an emerging hub for graphene manufacturing and deployment across multiple industries.

SK On signed a five-year, $180 million supply contract with Hansolchemical for 4,500 tonnes per annum of graphene additive for NCM811 cathodes, with shipments starting Q1 2027. The deal signals growing industrial-scale demand for graphene as a functional cathode additive in EV batteries, and will require Hansolchemical to expand its Gumi facility beyond its current 1,200 tonne per annum capacity.