← News & Intelligence
Material

MXenes

3 articles on MXenes in Hydrogen.

Application: Hydrogen✕ Clear filter, all MXenes coverage
Position Paper23 September 2026· Advanced Carbons Council

Engineered carbon is industrial infrastructure: The case for a U.S. carbon materials innovation platform

The Advanced Carbons Council calls for a U.S. carbon materials innovation platform focused on standards, testing and buyer qualification. The paper links engineered-carbon supply chains to manufacturing, energy, defense and AI infrastructure. Serves as a model for governments world-wide.

BiocharBiomass & Recycled CarbonsCarbon FiberCarbon NanofibersCarbon Nanotubes (CNTs)Carbon Nanotubes (CNTs)Carbon-Carbon CompositesEmerging Nano CarbonsFullerenesGraphiteGrapheneMXenesNanodiamondsAerospaceAsphaltAutomotiveBatteriesCarbon CaptureCoatingsCompositesConcreteConductive InksConstructionEMI ShieldingDefense RelatedElectronicsEnergy GenerationThermal ManagementTextilesSporting GoodsSensorsPolymersRubber & SyntheticsPlasticsPackagingOptoelectronicsOil & GasMembranes & FiltrationLubricantsHydrogenHealthcareGraphiteEmerging CarbonsInvestment & CapitalPolicyRegulationRegulatory AffairsResearch & Innovation
News1 July 2026· MXenes

MXene-Based Catalysts for Sustainability and Chemical Challenges

The MXeneCatSus COST Action is a European research network established to engineer MXene-based catalysts—two-dimensional materials made from Earth-abundant elements—for hydrogen generation, CO2 conversion, and nitrogen fixation. The initiative is relevant to advanced carbon materials research as MXenes share structural and functional characteristics with other 2D carbon materials and are being developed as alternatives or complements to graphene in catalytic applications.

MXenesCarbon CaptureHydrogenResearch & InnovationSustainabilitySupply Chain
MXene-Based Catalysts for Sustainability and Chemical Challenges
News30 June 2026· MXenes

UJ researchers design efficient solar material for water treatment

Researchers at the University of Johannesburg fabricated a three-layer nanocomposite photocatalyst (Ti1.33N@BiVO4/GdIn2Se3) incorporating a custom-synthesized MXene, achieving 20× greater electrical conductivity and charge-carrier lifetimes up to 59.5 seconds compared to single-component baselines. The MXene engineering approach demonstrates a pathway for improving charge-carrier retention in 2D carbon-adjacent materials, with direct relevance to MXene-based composite development for energy and environmental applications.

MXenesHydrogenMembranes & FiltrationOptoelectronicsResearch & InnovationSustainability
UJ researchers design efficient solar material for water treatment