At the University of Vienna, physicist Jani Kotakoski and his team have resolved a long-standing mystery in materials science: the shape of atomic-scale holes in hexagonal boron nitride is not fixed by physics alone, but is negotiated between physical force and chemical atmosphere. By introducing oxygen during electron beam irradiation, researchers discovered they could steer pore geometry from circular to triangular — a distinction that, at the scale of individual atoms, determines how a material interacts with the world passing through it. This quiet mastery over atomic architecture opens a
Vienna researchers control nanopore shapes in 'white graphene' through atmospheric engineering
Related Coverage
Canada's only epishelf lake drained permanently into the Arctic Ocean after the 2020 Milne Ice Shelf collapse, with a de…
Space Daily · Sep 11 Fast Radio Bursts Reveal 76% of Universe's Missing Ordinary Matter Lurks in Intergalactic GasAstronomers analyzed 69 fast radio bursts to locate the universe's missing ordinary matter, finding 76% resides in diffu…
Nation Thailand · Sep 11 Rare Moon-Venus occultation lights up Thai skies September 14 with free viewingThailand's National Astronomical Research Institute invites the public to witness a rare lunar occultation of Venus on S…
Science Daily · Sep 11 Human hearts can regrow muscle after attack, study showsResearchers demonstrate for the first time that human heart muscle cells can regenerate after a heart attack, overturnin…
Bias & Framing
Science journalism article presenting University of Vienna research on nanopore control in hexagonal boron nitride with neutral, factual framing and no apparent political or ideological bias.
Straightforward scientific reporting with emphasis on research methodology and potential applications. Uses standard science communication structure: problem identification, research approach, findings, and implications.
Geopolitical Impact
Austrian researchers' breakthrough in nanopore engineering for hBN has limited direct geopolitical impact but reflects broader competition in advanced materials science and quantum technology development.
This research strengthens EU scientific leadership in materials science and quantum technologies, areas critical for future technological sovereignty. Austria's contribution enhances European competitiveness against US and Asian rivals in nanotechnology and quantum applications, supporting EU strategic autonomy goals in advanced manufacturing and quantum computing.
Similar to Cold War-era space race dynamics, contemporary competition in quantum technologies and advanced materials represents a new frontier for technological dominance and economic advantage among major powers.
Economic Lens
Vienna researchers achieve precise control of nanopore shapes in hexagonal boron nitride through atmospheric manipulation, enabling advanced filtration and quantum technology applications with potential commercial impact.
Long-term positive impact through improved water filtration systems, more efficient DNA analysis for healthcare diagnostics, and enhanced environmental remediation technologies. Near-term consumer impact minimal as technology remains in research phase.
Potential for increased R&D funding in advanced materials and nanotechnology. May attract regulatory attention regarding manufacturing standards for nanoporous membranes. Could influence environmental policy if filtration applications scale commercially. Intellectual property frameworks may need updating for atomic-scale engineering techniques.