Jeg er en eksperimentell fysiker, spesialisert innen overflatevitenskap, med doktorgrad fra Cambridge University, Cavendish Laboratory. Min viktigste forskningsinteresse er utvikling av ny vitenskapelig instrumentering og nye metoder, ved hjelp av molekylære stråler.

Som postdoc ved TU-Graz koordinerte jeg et EU NEST-prosjekt om utvikling av et nytt mikroskop ved bruk av nøytrale heliumatomer som en bildesonde. I januar 2008 publiserte vi de første bildene. Dette førte til et nytt EU-prosjekt her i Bergen i 2013-2016. Forskningen fortsetter med det endelige målet å utvikle et nanoskala-nøytralt helium-stereomikroskop.

Forskergruppen min har også brukt molekylær strålediffraksjon for å karakterisere oksidoverflater. I 2015 oppdaget vi en av de største overflaterekonstruksjonene som noensinne er observert på et bulk-substrat på α-kvarts (0001). I 2021 var vi den første gruppen som målte den temperaturavhænginge bøyestivheten til et 2D-materiale. Dette blev gjort ved hjelp av uelastisk heliumatomspredning. Dette arbeide fortsætter i et FRIPRO projekt 2D Material Properties, finansieret af Forskningsrådet.

I 2019 publiserte jeg sammen med samarbeidspartnere en teoretisk artikkel som utvidet binær holografi til nærfeltet, og som viste hvordan dette kan brukes til å lage maskebasert litografi med 1 nm oppløsning ved bruk av metastabile heliumatomer. I 2020 har vi blitt finansiert av FET-OPEN for å realisere dette eksperimentelt. Jeg leder prosjektet.

Jeg har utvidet min interesse for vitenskapelig metodikk til å omfatte arkeometri. På dette feltet har jeg samarbeidet med konservatorer og arkeologer for å utvikle identifikasjonsmetoder for gamle plantefibre.

Jeg bruker også kunnskapen min om overflater i atomskala til å utvikle nye smarte overflater og -belegg. I 2019 publiserte gruppen min den første studien av grafenens isofobe egenskaper noensinne. Vi viste at fluorinert grafen gir langvarig ishemming av høy luftfuktighet. Dette arbeidet pågår i et M-ERA.NET-prosjekt, som jeg også koordinerer.

Jeg er interessert i undervisning og utvikling av nye undervisningsmetoder. De siste fem årene har jeg hatt ansvar for det grunnleggende fysikkurset i klassisk mekanikk, og jeg bruker kurset til å prøve ut nye undervisningsmetoder. Dette førte til en publikasjon om hvordan studentenes prestasjoner kan forbedres ved å inkludere "pugging" i forelesningene. Med støtte fra Universitetet har vi undersøgt hvordan Covid-19 lock down i 2020 påvirkede studenterne.

I mange år har jeg vært interessert i å støtte unge forskere, doktorgradsstudenter og postdoktorer. Jeg har holdt workshops om artikkelskriving og vitenskapelig publisering for flere hundre studenter ved forskjellige universiteter. Arbeidet resulterte i utgivelsen av boken "Scientific Paper Writing - A Survival Guide", illustrert av Jorge Cham fra PhD Comics.

Konferanseforedrag

• Bodil Holst (2017). Helium Microscopy. (ekstern lenke)
• Carsten Peter Hinzmann; John Benjamin Lothe; Justas Zalieckas et al. (2021). Nanocrystalline diamond coatings: A new method for wind turbine blade erosion protection?. (ekstern lenke)
• Thomas Reisinger; Amil A. Patel; Herbert Reingruber et al. (2009). Poissons spot with molecules. (ekstern lenke)
• Bodil Holst (2011). Nanoteknologi og Nanovitenskab Kunnskabsopbygning: Hvad gør UiB?. (ekstern lenke)
• Bodil Holst (2020). Diamonds are a Physicist's best Friend. (ekstern lenke)
• Bodil Holst; Bridget Murphy (2011). Identification of Ancient Plant Textiles. (ekstern lenke)
• Martin Møller Greve; Thomas Odijk Håvardstun; Bodil Holst (2013). Testing optical properties of metal nano-particles in large arrays for PV cell applications, fabricated by Electron Beam Lithography (EBL). (ekstern lenke)
• Bodil Holst (2008). Crystalline and Amorphous SiO2 Surfaces. (ekstern lenke)
• Bodil Holst (2022). The 2DMAT Project: Investigating Material Properties of 2D materials using Helium Atom Scattering. (ekstern lenke)
• Bodil Holst (2022). Measuring the Bending Rigidity of 2D Materials with Helium Atom Scattering. (ekstern lenke)
• Bodil Holst (2010). The New Electron Beam Lithography Facility in Bergen. (ekstern lenke)
• Ranveig Flatabø; Martin Møller Greve; Bodil Holst et al. (2017). Large area scanning helium ion beam lithography. (ekstern lenke)
• Ranveig Flatabø; Bodil Holst; Martin Møller Greve (2015). Charging effects in metal nanoparticles on insulating substrates. (ekstern lenke)
• Bodil Holst; Christian Bergfjord (2010). Identifying Archaeological Textile Fibers Using Modern Analysis Techniques. (ekstern lenke)
• Bodil Holst (2010). Atoms, Ancient Textiles and a Friendly Billionaire. (ekstern lenke)
• Bodil Holst (2010). Neutral Helium Atom Microscopy. (ekstern lenke)
• Bodil Holst (2010). Identification of ancient fibres using modern microscopy and diffraction techniques. (ekstern lenke)
• Bodil Holst (2009). Imaging with neutral atoms: a new matter wave microscope. (ekstern lenke)
• Anne Elisabeth Bjune; Bjørn Grung; Bodil Holst et al. (2017). Testing the impact of active learning in first year undergraduate natural science courses. (ekstern lenke)
• Bodil Holst (2017). Surface Studies and Matter Wave Optics Experiments with Neutral Helium Beams. (ekstern lenke)
• Vegard Gjerde; Bodil Holst; Stein Dankert Kolstø (2020). Providing learning opportunities based on cognitive psychology and PER: Student adoption, attitudes, and results in introductory mechanics. (ekstern lenke)
• Bodil Holst (2022). Measuring the Bending Rigidity of 2D Materials with Helium Atom Scattering. (ekstern lenke)
• Christian Bergfjord; Bodil Holst (2009). Identifying archaeological textile fiberes using modern microscopy techniques. (ekstern lenke)
• Bodil Holst (2023). What can you do with a beam of helium?. (ekstern lenke)
• Bodil Holst; Gianangelo Bracco (2012). Nanotechnology and Oil. (ekstern lenke)
• Jon Olav Grepstad; Martin Møller Greve; Bodil Holst et al. (2014). Finite-size limitations on the strength of guided resonances in 2D photonic crystals. (ekstern lenke)
• Carsten Peter Hinzmann; Drew F. Parsons; Johannes Fiedler et al. (2023). Nanodiamond-treated flax: Improving properties of natural fibers. (ekstern lenke)
• Thomas Reisinger; Bodil Holst (2012). Poisson's Spot and the Casimir-Polder Potential. (ekstern lenke)
• Bodil Holst (2024). (Plante)Fibre og Chips. (ekstern lenke)
• Thomas Kaltenbacher; Sabrina Daniela Eder; Bodil Holst (2013). Nemi - Neutral (Helium) Microscopy - Part II. (ekstern lenke)
• Bodil Holst (2024). Fibre og Chips. (ekstern lenke)
• Sabrina Daniela Eder; Bjørn Samelin; T Kaltenbacher et al. (2013). Seeing with Helium Atoms: The NEutral helium MIcroscope NEMI. (ekstern lenke)
• Bodil Holst; Simen Kaasa Hellner (2022). Mask Based Lithography with Metastable Helium Atoms. (ekstern lenke)
• Bodil Holst (2008). Neutral Atom Optics with Nanostructures. (ekstern lenke)
• Bodil Holst (2008). Neutral Helium Atom Microscopy. (ekstern lenke)
• Bodil Holst (2018). Bending Rigidity of 2D Silica and Anti-icing Properties of Graphen. (ekstern lenke)
• Bodil Holst (2019). Bending Rigidity of 2D Silica and Anti-icing Properties of Graphene. (ekstern lenke)
• Bodil Holst (2008). Seeing with Atoms. (ekstern lenke)
• Wolfram Steurer; Andreas Apfolter; Markus Koch et al. (2007). Boson Peak at the Glass Surface Observed by Helium Atom Scattering. (ekstern lenke)
• Bodil Holst (2007). New methods for investigating the transport properties of gas and liquids on the micron/nano scale. (ekstern lenke)
• Bodil Holst (2018). Bending Rigidity of 2D Silica. (ekstern lenke)
• Wolfram Steurer; Andreas Apfolter; Markus Koch et al. (2007). Observation of the boson peak at the surface of vitreous silica. (ekstern lenke)
• Martin Tømterud; Sabrina Daniela Eder; Christin Bücher et al. (2022). Observation of the Boson Peak in a 2D Material. (ekstern lenke)
• Bodil Holst (2012). New Ways of Looking at Things: Novel and Emerging Methods in Solid Films and Surface Investigations; NEMI: Neutral Microscopy. (ekstern lenke)
• Bodil Holst (2018). From Microscopes to Anti-icing - my Convoluted Path in Science. (ekstern lenke)
• Bodil Holst (2008). Imaging with Neutral Helium Atoms - A new Microscopy Technique. (ekstern lenke)
• Bodil Holst (2017). Kan Nanoteknologi Redde Verden?. (ekstern lenke)
• Bodil Holst (2013). Nanotechnology and Oil at UiB. (ekstern lenke)
• Bodil Holst (2011). Veien frem til E-beam lab ved IFT. (ekstern lenke)
• Alex Christian Hoffmann; Stamatina Karakitsiou; Bodil Holst (2016). Exact solution for the axial pressure drop in cylindrical isothermal channels with Maxwell slip flow. (ekstern lenke)
• Ranveig Flatabø; Martin Møller Greve; Karl K Berggren et al. (2017). Atom sieve for nanometer resolution neutral helium microscopy. (ekstern lenke)
• Sabrina Daniela Eder; Bjørn Samelin; Bodil Holst (2016). Atom Eyes: The Neutral Helium Microscope. (ekstern lenke)
• Bodil Holst (2007). Scanning helium atom microscopy - a new method for investigating fragile surface structures and porous materials. (ekstern lenke)
• Bodil Holst (2008). Seeing with Atoms. (ekstern lenke)
• Katrin Fladischer; Herbert Reingruber; Annie Weeks et al. (2007). Neutral Atom Focusing using a Single Crystal Silicon Wafer. (ekstern lenke)
• Bodil Holst (2007). Scientific Proposal Writing. (ekstern lenke)
• Bodil Holst (2007). Nanoscience at the University of Bergen. (ekstern lenke)
• Bodil Holst (2009). Investigating Ancient Textiles Using Modern Analysis Techniques. (ekstern lenke)
• Bodil Holst (2009). Poissons spot with Molecules. (ekstern lenke)
• Bodil Holst (2011). Different Ways of Looking at Things: A Discussion of the Complexity of Imaging at the Nano-Scale. (ekstern lenke)
• Bodil Holst; Bridget Murphy (2011). Identification of Ancient Plant Textiles. (ekstern lenke)
• Bodil Holst (2011). Nanotechnology at the Department of Physics and Technologies. (ekstern lenke)
• Bodil Holst (2009). De Broglie Atom Optics. (ekstern lenke)
• Bodil Holst (2010). Poissons Spot with Molecules. (ekstern lenke)
• Bodil Holst (2023). Nanolace: Mask Based Lithography with Metastable Helium Atoms. (ekstern lenke)
• Wiktoria Karolina Szapoczka; Viljar H. Larsen; Hanna Böpple et al. (2024). Transparent Anti-Biofouling Window Achieved through Surface Nanostructuring. (ekstern lenke)
• Sabrina Daniela Eder; Thomas Kaltenbacher; Bodil Holst (2013). Nemi - Neutral (Helium) Microscopy Part 1. (ekstern lenke)
• Vegard Gjerde; Bodil Holst (2018). Randomized controlled trial of self-explanation combined with problem solving for learning physics. (ekstern lenke)
• Bodil Holst (2009). Interdiciplinarity in Nanonresearch and Education. (ekstern lenke)
• Bodil Holst (2011). Atomer som lys, arkeologiske tekstiler og bergkrystall: Et kort overblikk over resultater fra mitt Bergens Forskningsstiftelsesprosjekt. (ekstern lenke)
• Bodil Holst (2011). Nano in Colour: The Complexity of Imaging at the Nano-scale and the Physical Importance of Colour in Nano-science. (ekstern lenke)
• Bodil Holst (2011). Nanotechnology at UiB. (ekstern lenke)
• Sabrina Daniela Eder; Thomas Reisinger; Gianangelo Bracco et al. (2009). Focusing of molecular beams for the development of new tools for nanoscience and nanotechnology. (ekstern lenke)
• Martin Møller Greve; Vårin Renate Andvik Holm; Bob Y. Zheng et al. (2016). Investigating the impact on hot electron emission from LSPR in gold nanostructures for varying dielectric separator thickness. (ekstern lenke)
• Wiktoria Karolina Szapoczka; Adam Leo Truskewycz; Tore Skodvin et al. (2022). Quantification of Fluorescence Intensity and Fluorescence Lifetime of Various Carbon Dots as a Function of pH. (ekstern lenke)
• Wiktoria Karolina Szapoczka; Tore Skodvin; Peter Thomas et al. (2022). Nanoteknologi og Biofouling. (ekstern lenke)
• Martin Møller Greve; Justas Zalieckas; Bodil Holst (2019). Wide-field microscopy for magnetic field imaging using nitrogen vacancies in diamond. (ekstern lenke)
• Ranveig Flatabø; Martin Møller Greve; Bodil Holst (2017). Helium ion beam lithography. (ekstern lenke)
• Bodil Holst (2007). The EU NMP Program. (ekstern lenke)
• Bodil Holst (2018). Neutral Helium Microscopy - A Gentle Way to See with Matter. (ekstern lenke)
• Bodil Holst (2018). Coating of Graphene. (ekstern lenke)
• Bodil Holst (2016). When and how can you use light microscopy to identify textile plant fibres. (ekstern lenke)
• Wolfram Steurer; Andreas Apfolter; Markus Koch et al. (2007). Observation of the boson peak at the surface of vitreous silica. (ekstern lenke)
• Wolfram Steurer; Andreas Apfolter; Markus Koch et al. (2008). Properties of the Surface Boson Peak in Silica Glass from Helium Atom Scattering Experiments. (ekstern lenke)
• Martin Tømterud; Sabrina Daniela Eder; Christin Bücher et al. (2022). Observation of the Boson Peak in a 2D Material. (ekstern lenke)
• Bodil Holst (2016). SiO2 - Bilayer and Bulk Surface: Structural and Mechanical Properties Investigated using Helium Atom Scattering. (ekstern lenke)
• Bodil Holst (2008). Presentation of the Nano UiB program + EUs Nanotechnology, materials and production program with special reference to Nanotoxicology. (ekstern lenke)
• Thomas Reisinger; Henry I Smith; Bodil Holst (2009). Free Standing Silicon-Nitride Fresnel Zoneplates for Neutral Helium Microscopy. (ekstern lenke)
• Bodil Holst (2010). He-Scattering from SiO2 Surfaces. (ekstern lenke)
• Bodil Holst (2020). Scientific Paper Writing. (ekstern lenke)
• Bodil Holst (2016). SiO2 - Bilayer and Bulk Surface: Structural and Mechanical Properties Investigated using Helium Atom Scattering. (ekstern lenke)
• Martin Møller Greve; Bodil Holst (2013). Optimization of an electron beam lithography instrument for fast large area writing at "low" voltage. (ekstern lenke)
• Bodil Holst (2010). Nanoteknologiens Muligheter. (ekstern lenke)
• Bodil Holst (2021). Identifying archaeological fibres with optical and electron microscopy: pitfalls and challenges. (ekstern lenke)
• Bodil Holst (2022). Mask Based Nanometer Resolution Lithography with Atom. (ekstern lenke)
• Wiktoria Karolina Szapoczka; Adam Leo Truskewycz; Tore Skodvin et al. (2022). Fluorescence Intensity and Fluorescence Lifetime Measurements of Various Carbon Dots as a Function of pH presented with Background Information on the Development of a Novel, Affordable, Compact, and Stable Optical pH-sensor for Long-term Seawater Monitoring Applications. (ekstern lenke)
• Sabrina Daniela Eder; Thomas Reisinger; Bodil Holst (2010). Neutral Helium Atom Microscopy: "Seeing with Atoms". (ekstern lenke)
• Bodil Holst (2008). Presentation of the Nano-UiB program at the Nano-UiB meeting Vatnahalsen 2008. (ekstern lenke)
• Bodil Holst (2010). Micro Diffraction Experiments at IFT: A new Approach to Plant Fibre Identification. (ekstern lenke)
• Bodil Holst; Naureen Akhtar (2018). A novel anti-icing coating. (ekstern lenke)

Vitenskapelig artikkel

• Sabrina Daniela Eder; Xiaodong Guo; Thomas Kaltenbacher et al. (2015). Focusing of a neutral helium beam with a photon-sieve structure. (ekstern lenke)
• Carsten Hinzmann; Nicolai Frost-Jensen Johansen; Charlotte Bay Hasager et al. (2024). Failsafe layer for wind turbine blades: Erosion protection of glass fiber composite through nanodiamond-treated flax composite top layer. (ekstern lenke)
• Adria Salvador Palau; Gianangelo Bracco; Bodil Holst (2016). Theoretical model of the helium pinhole microscope. (ekstern lenke)
• Katrin Fladischer; Herbert Reingruber; Thomas Reisinger et al. (2010). An ellipsoidal mirror for focussing of atoms and molecules. (ekstern lenke)
• Sabrina Daniela Eder; Adria Salvador Palau; Thomas Kaltenbacher et al. (2018). Velocity distributions in microskimmer supersonic expansion helium beams: High precision measurements and modeling. (ekstern lenke)
• Torstein Nesse; Sabrina Daniela Eder; Thomas Kaltenbacher et al. (2017). Neutral-helium-atom diffraction from a micron-scale periodic structure: Photonic-crystal-membrane characterization. (ekstern lenke)
• Git Skoglund; Margareta Nockert; Bodil Holst (2013). Viking and early middle ages Northern Scandinavian textiles proven to be made with hemp. (ekstern lenke)
• Sam Lambrick; Adria Salvador Palau; Poul Erik Hansen et al. (2021). True-to-size surface mapping with neutral helium atoms. (ekstern lenke)
• Håkon Røst; Simon Phillip Cooil; Anna Cecilie Åsland et al. (2023). Phonon-Mediated Quasiparticle Lifetime Renormalizations in Few-Layer Hexagonal Boron Nitride. (ekstern lenke)
• Wolfram Steurer; Andreas Apfolter; Markus Koch et al. (2007). The structure of the alpha-quartz (0001) surface investigated using helium atom scattering and atomic force microscopy. (ekstern lenke)
• Martin Tømterud; Sabrina Daniela Eder; Christin Büchner et al. (2022). Variation of bending rigidity with material density: bilayer silica with nanoscale holes. (ekstern lenke)
• Wolfram Steurer; Andreas Apfolter; Markus Koch et al. (2007). Observation of the boson peak at the surface of vitreous silica. (ekstern lenke)
• Martin Tømterud; Sabrina Daniela Eder; Simen Kaasa Hellner et al. (2025). Helium atom scattering investigation of the boson peak presence in amorphous and crystalline two-dimensional materials. (ekstern lenke)
• Sabrina Daniela Eder; Thomas Reisinger; Martin Møller Greve et al. (2012). Focusing of a neutral Helium beam below one micron. (ekstern lenke)
• Ashraf A. Dahaba; Helmar Bornemann; Bodil Holst et al. (2008). Comparison of a new neuromuscular transmission monitor compressomyograph with mechanomyograph. (ekstern lenke)
• Amjad Al Taleb; Lena N. Majer; Espen Werdal Selfors et al. (2022). Ultrasmooth graphene-coated metal thin films on sapphire grown by thermal laser epitaxy. (ekstern lenke)
• Christian Totland; Peter Thomas; Bodil Holst et al. (2019). A broad-range fluorescence lifetime pH sensing material based on a single organic fluorophore. (ekstern lenke)
• Sabrina Daniela Eder; Ranveig Flatabø; Anders K Ravn et al. (2018). Fast resolution change in neutral helium atom microscopy. (ekstern lenke)
• Spiros Kotopoulis; Sabrina Daniela Eder; Martin Møller Greve et al. (2013). Lab-on-a-chip device for fabrication of therapeutic microbubbles on demand. (ekstern lenke)
• Vegard Gjerde; Robert Morris Gray Jr; Bodil Holst et al. (2021). The Covid-19 shutdown: when studying turns digital, students want more structure. (ekstern lenke)
• Signe Kyrkjebø; Andrew Cassidy; Naureen Akhtar et al. (2021). Graphene and graphene oxide on Ir(111) are transparent to wetting but not to icing. (ekstern lenke)
• Naureen Akhtar; Simen Hjellvik Askeland; Bodil Holst (2021). Solid State Conversion: Microstructuring of Crystalline Al2O3 (Sapphire) by Annealing of Patterned Aluminium Films. (ekstern lenke)
• Vegard Gjerde; Vegard Havre Paulsen; Bodil Holst et al. (2022). Problem solving in basic physics: Effective self-explanations based on four elements with support from retrieval practice. (ekstern lenke)
• Martin Møller Greve; Bodil Holst (2013). Optimization of an electron beam lithography instrument for fast, large area writing at 10 kV acceleration voltage. (ekstern lenke)
• Signe Kyrkjebø; Andrew Cassidy; Sam Lambrick et al. (2023). ³He spin-echo scattering indicates hindered diffusion of isolated water molecules on graphene-covered Ir(111). (ekstern lenke)
• W Steurer; A Apfolter; M Koch et al. (2008). Surface dynamics measurements of silica glass. (ekstern lenke)
• Carsten Hinzmann; Nicolai Frost-Jensen Johansen; Charlotte Bay Hasager et al. (2024). Towards greener wind power: Nanodiamond-treated flax fiber composites outperform standard glass fiber composites in impact fatigue tests. (ekstern lenke)
• Johannes Fiedler; Adria Salvador Palau; Eivind Kristen Osestad et al. (2023). Realistic mask generation for matter-wave lithography via machine learning. (ekstern lenke)
• Wolfram Steurer; Andreas Apfolter; Markus Koch et al. (2008). Vibrational excitations of glass observed using helium atom scattering. (ekstern lenke)
• Thomas Reisinger; Gianangelo Bracco; Bodil Holst (2011). Particle-wave discrimination in Poisson spot experiments. (ekstern lenke)
• Hana Lukešová; Heidi Lie Andersen; M Kolinova et al. (2018). Is It Hop? Identifying Hop Fibres in a European Historical Context. (ekstern lenke)
• Markus Koch; Stefan Rehbein; Günther Schmahl et al. (2008). Imaging with neutral atoms - a new matter-wave microscope. (ekstern lenke)
• Melanie Ostermann; Alexander Sauter; Ying Xue et al. (2020). Label-free impedance flow cytometry for nanotoxicity screening. (ekstern lenke)
• Bodil Holst; Jan Piskur; Petro P. Kostrobiy et al. (2009). Field ionization of helium in a supersonic beam: Kinetic energy of neutral atoms and probability of their field ionization. (ekstern lenke)
• Vegard Gjerde; Bodil Holst; Stein Dankert Kolstø (2020). Retrieval practice of a hierarchical principle structure in university introductory physics: Making stronger students. (ekstern lenke)
• Einar Haugan; Bodil Holst (2014). Flax look-alikes: Pitfalls of ancient plant fibre identification. (ekstern lenke)
• Git Skoglund; Bodil Holst; Hana Lukesova (2020). First experimental evidence of hop fibres in historical textiles. (ekstern lenke)
• Ranveig Flatabø; Akshay Agarwal; Richard Hobbs et al. (2018). Exploring proximity effects and large depth of field in helium ion beam lithography: large-area dense patterns and tilted surface exposure. (ekstern lenke)
• Naureen Akhtar; Gloria Anemone; Daniel Farias et al. (2018). Fluorinated graphene provides long lasting ice inhibition in high humidity. (ekstern lenke)
• Julian Carolan; Martin Jakubec; Neubi F. Xavier et al. (2025). Anti-icing properties of polar bear fur. (ekstern lenke)
• Sabrina Daniela Eder; Bjørn Samelin; Gianangelo Bracco et al. (2013). A free jet (supersonic), molecular beam source with automatized, 50 nm precision nozzle-skimmer positioning. (ekstern lenke)
• Thomas Reisinger; Bodil Holst (2008). Neutral Atom and Molecule Focusing Using a Fresnel Zone Plate. (ekstern lenke)
• Wiktoria Karolina Szapoczka; Viljar Hesenget Larsen; Hanna Böpple et al. (2024). Transparent, Antibiofouling Window Obtained with Surface Nanostructuring. (ekstern lenke)
• Vegard Gjerde; Bodil Holst; Stein Dankert Kolstø (2021). Integrating effective learning strategies in basic physics lectures: A thematic analysis. (ekstern lenke)
• Johannes Fiedler; Kim Lefmann; Wolf von Klitzing et al. (2023). Monolithic atom interferometry. (ekstern lenke)
• Sabrina Daniela Eder; Gianangelo Bracco; Thomas Kaltenbacher et al. (2013). Two dimensional imaging of the virtual source of a supersonic beam: helium at 125 K. (ekstern lenke)
• C. S. Hanser; Per Erik Vullum; Antonius Van Helvoort et al. (2024). Atomic resolution transmission electron microscopy visualisation of channel occupancy in beryl in different crystallographic directions. (ekstern lenke)
• Martin Møller Greve; Alexandre Vial; Jakob J. Stamnes et al. (2013). The Beynon Gabor zone plate: a new tool for de Broglie matter waves and hard X-rays? An off axis and focus intensity investigation. (ekstern lenke)
• Eivind Kristen Osestad; Ekaterina Zossimova; Michael Walter et al. (2024). Atomic diffraction by nanoholes in hexagonal boron nitride. (ekstern lenke)
• Johannes Fiedler; Bodil Holst (2022). An atom passing through a hole in a dielectric membrane: Impact of dispersion forces on mask-based matter-wave lithography. (ekstern lenke)
• Christian Totland; Peter Thomas; Bodil Holst et al. (2020). 9-Acridinemethanamine and Acridine-9-Carboxaldehyde as Potential Fluorescence Lifetime pH Indicators. (ekstern lenke)
• Ranveig Flatabø; Sabrina Daniela Eder; Thomas Reisinger et al. (2024). Reflection imaging with a helium zone plate microscope. (ekstern lenke)
• Sabrina Daniela Eder; S.R. Yeandel; Anne Lelarge et al. (2015). A giant reconstruction of α-quartz (0001) interpreted as three domains of nano dauphine twins. (ekstern lenke)
• Martin Tømterud; Sabrina Daniela Eder; Christin Büchner et al. (2023). Observation of the boson peak in a two-dimensional material. (ekstern lenke)
• Jan Piskur; Leise Borg; Alexander Stupnik et al. (2008). Field ionization of free helium atoms: Correlation between the energy of ionized atoms and probability of their field ionization. (ekstern lenke)
• Stamatina Karakitsiou; Bodil Holst; Alex Christian Hoffmann (2017). Pressure-Driven Gas Flow through Nano-Channels at High Knudsen Number. (ekstern lenke)
• Espen Werdal Selfors; Amjad Al Taleb; Lena Nadine Majer et al. (2025). Surface morphology's role in water freezing onset: A study of graphene on ruthenium thin films produced with two different methods. (ekstern lenke)
• Wiktoria Karolina Szapoczka; Adam Leo Truskewycz; Tore Skodvin et al. (2023). Fluorescence intensity and fluorescence lifetime measurements of various carbon dots as a function of pH. (ekstern lenke)
• Jon Olav Grepstad; Martin Møller Greve; Bodil Holst et al. (2013). Finite-size limitations on quality factor of guided resonance modes in 2D photonic crystals. (ekstern lenke)
• Thomas Reisinger; Amil A. Patel; Herbert Reingruber et al. (2009). Poisson's spot with molecules. (ekstern lenke)
• Vårin Renate Andvik Holm; B. Y Zheng; Philip Denby et al. (2018). Work Function-Driven Hot Electron Extraction in a Bimetallic Plasmonic MIM Device. (ekstern lenke)
• Bodil Holst (2025). Seeing with atoms. (ekstern lenke)
• Katrin Fladischer; Dariusz Litwin; Jacek Galas et al. (2008). An Optical Profilometer for Characterizing Complex Surfaces under High Vacuum Conditions. (ekstern lenke)
• Espen Werdal Selfors; Ranveig Flatabø; Peter James Thomas et al. (2024). Increasing the adhesion of graphene on quartz through fluorination. (ekstern lenke)
• Naureen Akhtar; Peter James Thomas; Benny Svardal et al. (2018). Pillars or Pancakes? Self-Cleaning Surfaces without Coating. (ekstern lenke)
• Wolfram Steurer; Andreas Apfolter; Markus Koch et al. (2008). Anomalous phonon behavior: Blueshift of the surface boson peak in silica glass with increasing temperature. (ekstern lenke)
• Mirjam Dyrhovden Fjell; John Benjamin Lothe; Naomi J. Halas et al. (2024). Enhancing Silicon Solar Cell Performance Using a Thin-Film-like Aluminum Nanoparticle Surface Layer. (ekstern lenke)
• Torstein Nesse; Jean-Philippe Banon; Bodil Holst et al. (2017). Optimal design of grid-based binary holograms for matter-wave lithography. (ekstern lenke)
• Christian Bergfjord; Ulla Mannering; Karin M. Frei et al. (2012). Nettle as a distinct Bronze Age textile plant. (ekstern lenke)
• Thomas Reisinger; Martin Møller Greve; Sabrina Daniela Eder et al. (2012). Brightness and virtual source size of a supersonic deuterium beam. (ekstern lenke)
• Wolfram Steurer; Andreas Apfolter; Markus Koch et al. (2008). Surface Dynamics Measurements of Silica Glass. (ekstern lenke)
• Justas Zalieckas; P. Pobedinskas; Martin Møller Greve et al. (2021). Large area microwave plasma CVD of diamond using composite right/left-handed materials. (ekstern lenke)
• Vårin Renate Andvik Holm; Martin Møller Greve; Bodil Holst (2016). Temperature induced color change in gold nanoparticle arrays: Investigating the annealing effect on the localized surface plasmon resonance. (ekstern lenke)
• Vårin Renate Andvik Holm; Martin Møller Greve; Bodil Holst (2017). A theoretical investigation of the optical properties of metal nanoparticles in water for photo thermal conversion enhancement. (ekstern lenke)
• Adria Salvador Palau; Sabrina Daniela Eder; Truls Andersen et al. (2018). Center-line intensity of a supersonic helium beam. (ekstern lenke)
• Wolfram Steurer; Andreas Apfolter; Markus Koch et al. (2008). Low-energy surface phonons on alpha-quartz (0001). (ekstern lenke)
• Ranveig Flatabø; Vårin Renate Andvik Holm; Håkon Eidsvåg et al. (2017). Light absorption and scattering of 40-170 nm gold nanoparticles on glass substrates. (ekstern lenke)
• Torstein Nesse; Ingve Simonsen; Bodil Holst (2019). Nanometer-Resolution Mask Lithography with Matter Waves: Near-Field Binary Holography. (ekstern lenke)
• Wiktoria Karolina Szapoczka; Chiara Olla; Cristina Carucci et al. (2024). Ratiometric Fluorescent pH Sensing with Carbon Dots: Fluorescence Mapping across pH Levels for Potential Underwater Applications. (ekstern lenke)
• Adria Salvador Palau; Sabrina Daniela Eder; Truls Andersen et al. (2018). Centre line intensity of a supersonic helium beam. (ekstern lenke)
• Gloria Anemone; Amjad Al Taleb; Sabrina Daniela Eder et al. (2017). Flexible thin metal crystals as focusing mirrors for neutral atomic beams. (ekstern lenke)
• Arivazhagan Valluvar Oli; F.D. Schmitz; Per Erik Vullum et al. (2016). Atomic resolution imaging of beryl: an investigation of the nano-channel occupation. (ekstern lenke)
• Christian Bergfjord; Bodil Holst (2010). A procedure for identifying textile bast fibres using microscopy: Flax, nettle/ramie, hemp and jute. (ekstern lenke)
• R. O’Meara; V. Dhyani; B.R. Tak et al. (2026). Measurement of the lithographic point-spread function of a focused helium ion beam in negative-tone PMMA and fullerene resists on ultrathin membranes. (ekstern lenke)
• Vegard Gjerde; Martino Marisaldi; Kjellmar Oksavik et al. (2025). Mandatory retrieval test to incentivize retrieval practice of physics principles. (ekstern lenke)
• Thomas Reisinger; Sabrina Daniela Eder; Martin Møller Greve et al. (2010). Free-standing silicon-nitride zoneplates for neutral-helium microscopy. (ekstern lenke)
• Wolfram Steurer; Andreas Apfolter; Markus Koch et al. (2008). Surface Debye temperature of alpha-quartz (0001). (ekstern lenke)
• Sabrina Daniela Eder; Anders K Ravn; Bjørn Samelin et al. (2017). Zero-order filter for diffractive focusing of de Broglie matter waves. (ekstern lenke)
• Naureen Akhtar; Vårin Renate Andvik Holm; Peter James Thomas et al. (2015). Underwater Superoleophobic Sapphire (0001) Surfaces. (ekstern lenke)
• Stamatina Karakitsiou; Bodil Holst; Alex Christian Hoffmann (2016). Apparatus for measuring pressure-driven transport through channels at high Knudsen numbers. (ekstern lenke)
• Carsten Peter Hinzmann; Drew F. Parsons; Johannes Fiedler et al. (2023). Nanodiamond-treated flax: improving properties of natural fibers. (ekstern lenke)
• Christin Büchner; Sabrina Daniela Eder; Torstein Nesse et al. (2018). Bending rigidity of 2D silica. (ekstern lenke)
• Jon Olav Grepstad; Martin Møller Greve; Thomas Reisinger et al. (2013). Nanostructuring of free-standing, dielectric membranes using electron-beam lithography. (ekstern lenke)
• Christian Totland; Peter Thomas; Bodil Holst et al. (2019). The use of surfactant-filled mesoporous silica as an immobilising medium for a fluorescence lifetime pH indicator, providing long-term calibration stability. (ekstern lenke)
• Einar Haugan; Bodil Holst (2013). Determining the fibrillar orientation of bast fibres with polarized light microscopy: the modified Herzog test (red plate test) explained. (ekstern lenke)
• Sabrina Daniela Eder; Adam Fahy; Matthew G. Barr et al. (2023). Sub-resolution contrast in neutral helium microscopy through facet scattering for quantitative imaging of nanoscale topographies on macroscopic surfaces. (ekstern lenke)
• Justas Zalieckas; Ivan Rios Mondragon; Paulius Pobedinskas et al. (2022). Polycrystalline diamond coating on orthopedic implants: Realization and role of surface topology and chemistry in adsorption of proteins and cell proliferation. (ekstern lenke)
• Johannes Fiedler; Bodil Holst (2024). A continuous beam monochromator for matter waves. (ekstern lenke)
• Åslaug Ommundsen; Aidan Keally Conti; Øystein Ariansen Haaland et al. (2025). How many medieval and early modern manuscripts were copied by female scribes? A bibliometric analysis based on colophons. (ekstern lenke)
• Bodil Holst (2008). Imaging Techniques - Heliomicroscopy. (ekstern lenke)
• Sabrina Daniela Eder; Simen Kaasa Hellner; Stiven Forti et al. (2021). Temperature-Dependent Bending Rigidity of AB-Stacked Bilayer Graphene. (ekstern lenke)
• Hana Lukešová; Adria Salvador Palau; Bodil Holst (2017). Identifying plant fibre textiles from Norwegian Merovingian Period and Viking Age graves: The Late Iron Age Collection of the University Museum of Bergen. (ekstern lenke)
• Bodil Holst; Thomas Reisinger; Gianangelo Bracco (2009). Atom Optics: Seeing Spots. (ekstern lenke)
• Matthew Bergin; David J. Ward; Sam Lambrick et al. (2021). Low-energy electron ionization mass spectrometer for efficient detection of low mass species. (ekstern lenke)
• Ranveig Flatabø; Martin Møller Greve; Sabrina Daniela Eder et al. (2017). Atom sieve for nanometer resolution neutral helium microscopy. (ekstern lenke)
• Thomas Reisinger; Gianangelo Bracco; Stefan Rehbein et al. (2007). Direct Images of the Virtual Source in a Supersonic Expansion. (ekstern lenke)
• Martin Møller Greve; Thomas Odijk Håvardstun; Bodil Holst (2013). Measuring the localized surface plasmon resonance effect on large arrays (5 mm × 5 mm) of gold and aluminum nanoparticles on borosilicate glass substrates, fabricated by electron beam lithography. (ekstern lenke)
• Martin Tømterud; Simen Kaasa Hellner; Sabrina Daniela Eder et al. (2025). Observation of increasing bending rigidity of graphene with temperature. (ekstern lenke)
• Adria Salvador Palau; Sabrina Daniela Eder; Thomas Kaltenbacher et al. (2016). A modified time-of-flight method for precise determination of high speed ratios in molecular beams. (ekstern lenke)
• Simen Kaasa Hellner; Sabrina Daniela Eder; Gianangelo Bracco et al. (2024). Testing the validity of supersonic molecular beam modeling in the high-throughput range using an Even-Lavie valve. (ekstern lenke)
• Hana Lukesova; Bodil Holst (2020). Is Cross‐Section Shape a Distinct Feature in Plant Fibre Identification?. (ekstern lenke)

Forelesning

• Bodil Holst (2016). Neutral Helium Matter Waves - What can we use them for?. (ekstern lenke)
• Bodil Holst (2016). Scientific Paper Writing. (ekstern lenke)
• Bodil Holst (2011). Nanoteknologi - Fra Grunnforskning til Anvendelser i Vårt Daglige Liv. (ekstern lenke)
• Bodil Holst (2011). Nanoteknologi - Hva er det? Hva kan det brukes til?. (ekstern lenke)
• Bodil Holst (2021). Helium Atom Scattering - A unique technique for measuring the bending rigidity of 2D materials. (ekstern lenke)
• Bodil Holst (2016). Nanoteknologi, hva skjer?. (ekstern lenke)
• Bodil Holst (2012). Nanoteknologi - Hva er det?. (ekstern lenke)
• Bodil Holst (2015). HVordan bli bedre på eksternfinansiering- perspektiv fra EU/NFR. (ekstern lenke)
• Bodil Holst (2015). Hva er Nanoteknologi?. (ekstern lenke)
• Bodil Holst (2019). Nanoteknologi - hva er det?. (ekstern lenke)
• Bodil Holst (2018). Nanotechnology – enabling new monitoring solutions. (ekstern lenke)
• Bodil Holst (2018). Writing a research paper - a survival guide. (ekstern lenke)
• Bodil Holst (2021). History of my Research in (not Quite) 100 Projects. (ekstern lenke)
• Bodil Holst (2021). History of my Research in (not Quite) 100 Projects. (ekstern lenke)
• Bodil Holst (2017). Scientific Paper Writing. (ekstern lenke)
• Åshild Fredriksen; Anne Borg; Bodil Holst (2011). Status of Women in Physics - Norway. (ekstern lenke)
• Bodil Holst (2023). Scientific Paper Writing. (ekstern lenke)
• Bodil Holst (2023). What can you do with a beam of helium?. (ekstern lenke)
• Bodil Holst (2012). Nanoteknologi - Hva er det?. (ekstern lenke)
• Carsten Peter Hinzmann; Justas Zalieckas; Bodil Holst (2022). Leading edge erosion: Nanodiamond coated fibers. (ekstern lenke)
• Bodil Holst (2018). Scientific Paper Writing. (ekstern lenke)
• Bodil Holst (2019). Hvad er nanoteknologi og hvad kan det bruges til?. (ekstern lenke)
• Bodil Holst (2014). Om Nanoteknologi. (ekstern lenke)
• Bodil Holst (2008). Some Thoughts on Academic Dissemination. (ekstern lenke)
• Bodil Holst (2019). Smart Surfaces - A Self Cleaning Future. (ekstern lenke)
• Bodil Holst; Kenneth Hugdahl (2018). Hjernen og Nano. (ekstern lenke)
• Bodil Holst (2018). Geologi Møter Nanoteknologi. (ekstern lenke)
• Bodil Holst (2018). Geologi møter Nanoteknologi. (ekstern lenke)
• Bodil Holst (2014). Nanoteknologi - Hva er det?. (ekstern lenke)
• Bodil Holst (2022). How to Maneuver the University (I did not pick this title). (ekstern lenke)
• Bodil Holst (2010). Kva er Nanoteknologi?. (ekstern lenke)
• Bodil Holst (2015). Hva er Nanoteknologi?. (ekstern lenke)
• Bodil Holst (2015). Om Nanoteknologi. (ekstern lenke)
• Bodil Holst (2015). Om Nanoteknologi. (ekstern lenke)
• Bodil Holst (2012). Nanoteknologi - Hva er det? Hva kan det brukes til?. (ekstern lenke)
• Bodil Holst (2022). Panel debate on experience with participation in EU-Projects; takeaway, benefits and challenges. (ekstern lenke)
• Bodil Holst (2021). How to Write a Research Proposal. (ekstern lenke)
• Bodil Holst (2009). Hvad er Nanoteknologi. (ekstern lenke)
• Bodil Holst (2018). Tråde til Fortiden. (ekstern lenke)
• Bodil Holst (2014). The Nobel Price in Chemistry 2014. (ekstern lenke)
• Bodil Holst (2011). Nanoteknologi - Hva er det? Hva kan det brukes til?. (ekstern lenke)
• Bodil Holst (2023). Scientific Paper Writing. (ekstern lenke)
• Bodil Holst (2012). Nanoteknologi - Hva er det?. (ekstern lenke)
• Bodil Holst (2010). Hvad er Nanoteknologi?. (ekstern lenke)
• Bodil Holst (2013). Nanoteknologi - Hva er det, og hva ka det brukes til?. (ekstern lenke)
• Bodil Holst (2013). Nanoteknologi - Hva er det, og hva kan det brukes til?. (ekstern lenke)
• Bodil Holst (2012). Nanoteknologi - Hva er det?. (ekstern lenke)
• Bodil Holst (2019). Writing a research paper - a survival guide. (ekstern lenke)
• Bodil Holst (2021). How To Write a Research Proposal. (ekstern lenke)
• Bodil Holst (2023). What do I do?. (ekstern lenke)
• Bodil Holst (2025). Tråde fra fortiden. (ekstern lenke)
• Bodil Holst (2014). Nanoteknologi - Hva er det?. (ekstern lenke)
• Bodil Holst (2008). Are Women Suited for Academic Studies?. (ekstern lenke)
• Bodil Holst (2010). Nanoteknologi. (ekstern lenke)
• Bodil Holst (2012). Nanoteknologi - Hva er det?. (ekstern lenke)
• Bodil Holst (2015). De higer og søger: Hvordan kan universiteterne og Forskningsministeriet bedst tilrettelægge danks phd.uddannelse?. (ekstern lenke)
• Bodil Holst (2022). Opfølgende paneldebat efter filmvising: "Women in science in Africa: A silent revolution". (ekstern lenke)
• Bodil Holst (2009). Får vi eit betre og lengre liv takka vere nanoteknologien?. (ekstern lenke)
• Bodil Holst (2017). Hva er Nanoteknologi – Hva kan det brukes til og hvilken betydning har det for samfunnet?. (ekstern lenke)

Konferanseposter

• Thomas Reisinger; Bodil Holst (2010). Nanofabrication of Zoneplates using Electron Beam Lithography. (ekstern lenke)
• Martin Møller Greve; Ranveig Flatabø; Karl K Berggren et al. (2018). Atom sieve for nanometer resolution neutral helium microscopy. (ekstern lenke)
• Hana Lukešová; Bodil Holst (2018). Transmission electron microscopy - The nanoscale technology for tomorrow’s archaeology?. (ekstern lenke)
• Wiktoria Karolina Szapoczka; Adam Leo Truskewycz; Tore Skodvin et al. (2022). Carbon Dots as Fluorescent pH-sensing Materials. (ekstern lenke)
• Vårin Renate Andvik Holm; Martin Møller Greve; Bodil Holst (2015). Blue to red observation of a reversed color change in an array of gold nano particles; a systematic investigation.. (ekstern lenke)
• Thomas Reisinger; Henry I Smith; Bodil Holst (2009). Free-standing silicon-nitride zoneplates for neutral-helium microscopy. (ekstern lenke)
• Martin Tømterud; Sabrina Daniela Eder; Christin Bücher et al. (2022). Observation of the Boson Peak in a 2D Material. (ekstern lenke)
• Bodil Holst; Thomas Reisinger (2011). Poisson's Spot with Molecules. (ekstern lenke)
• Wiktoria Karolina Szapoczka; Viljar H. Larsen; Hanna Böpple et al. (2024). Transparent Anti-Biofouling Window. (ekstern lenke)
• Jon Olav Grepstad; Martin Møller Greve; Thomas Reisinger et al. (2013). Advances on e-beam fabrication of photonic crystal membranes. (ekstern lenke)
• Bodil Holst; Åshild Fredriksen; Anne Borg (2011). On the Recruitment and Participation of Women in Physics: A Report from Norway. (ekstern lenke)
• Torstein Nesse; Sabrina Daniela Eder; Joseph Manson et al. (2016). Helium Scattering from amorphous surfaces. (ekstern lenke)
• Sabrina Daniela Eder; Bodil Holst (2009). Helium Microscopy. (ekstern lenke)
• Thomas Reisinger; Bodil Holst (2010). Poisson's Spot with Molecules. (ekstern lenke)
• Katrin Fladischer; Sabrina Daniela Eder; Elin Soendergaard et al. (2010). New Insight into the Alph-Quartz (0001) surface provided by HAS and AFM. (ekstern lenke)
• Thomas Reisinger; Bodil Holst (2008). Neutral Helium Microscopy. (ekstern lenke)
• Håvard Stavn Ugulen; Martin Møller Greve; Ranveig Flatabø et al. (2017). Metal nanoparticles fabricated on a waveguide – sensing with white light. (ekstern lenke)
• Vårin Renate Andvik Holm; Martin Møller Greve; Bodil Holst (2016). Investigating the cause of a color change in annealed gold nano particle arrays. (ekstern lenke)
• Hana Lukešová; A. Palau; Bodil Holst (2015). Fibre Identification in Archaeology. (ekstern lenke)
• Martin Møller Greve; Sabrina Daniela Eder; Ranveig Flatabø et al. (2019). Nanostructured optical elements for neutral helium microscopy. (ekstern lenke)
• Vårin Renate Andvik Holm; Ranveig Flatabø; Martin Møller Greve et al. (2014). University of Bergen Nano Physics Group Selected Activities. (ekstern lenke)
• Sabrina Daniela Eder; Bodil Holst (2009). Helium Microscopy. (ekstern lenke)
• Martin Møller Greve; Vårin Renate Andvik Holm; Ranveig Flatabø et al. (2017). A study of light absorbance of gold metal nanoparticles in the size range 45 to 200 nm fabricated using e-beam lithography. (ekstern lenke)
• Martin Møller Greve; Håvard Stavn Ugulen; Ranveig Flatabø et al. (2018). Metal nanoparticles fabricated on a waveguide – sensing with white light. (ekstern lenke)
• Jan Piskur; Leise Borg; Alexander Stupnik et al. (2007). An investigation of the correlation between the kinetic energy of atoms and the probability of field ionization. (ekstern lenke)
• Martin Møller Greve; Philip Denby; Bodil Holst (2013). Mm2 size arrays of metal nano-particles for solar cell applications fabricated by Electron Beam Lithography (EBL). (ekstern lenke)
• Bodil Holst; Thomas Reisinger (2011). Poisson's Spot with Molecules. (ekstern lenke)
• Wiktoria Karolina Szapoczka; Adam Leo Truskewycz; Tore Skodvin et al. (2023). Fluorescence Emission and Fluorescence Lifetime Measurements of Five Carbon Dots as a Function of pH. (ekstern lenke)
• Ranveig Flatabø; Bodil Holst; Martin Møller Greve (2016). Measurement error in metal nanostructures on insulating substrates induced by electron beam irradiation. (ekstern lenke)
• Wiktoria Karolina Szapoczka; Viljar H. Larsen; Hanna Böpple et al. (2024). Creating Transparent Anti-Biofouling Windows with Surface Nanostructuring. (ekstern lenke)
• Katrin Fladischer; Sabrina Daniela Eder; Elin Soendergaard et al. (2010). The Surface Structure of Alpha-Quarts(0001) Revealed. (ekstern lenke)
• Philip Denby; Bodil Holst (2010). Realizing Innovation in Nanotechnology - PV NANO. (ekstern lenke)
• Carsten Peter Hinzmann; Justas Zalieckas; Joachim Reuder et al. (2021). Nanodiamond Coating: Preventing Erosion on Wind Turbine Blades. (ekstern lenke)
• Mirjam Dyrhovden Fjell; Bodil Holst; Mali Husby Rosnes et al. (2021). Enhancing Solar Cell Efficiency Using Nanotechnology. (ekstern lenke)
• Vårin Renate Andvik Holm; Ranveig Flatabø; Martin Møller Greve et al. (2014). An all metal solar cell. (ekstern lenke)
• Bodil Holst; Jan Piskur; P. P. Kostrbiy et al. (2008). Field ionization of helium in a focussed atomic beam: kinetic energy of neutral atoms and probability of their field ionization. (ekstern lenke)
• Thomas Reisinger; Bodil Holst (2008). Neutral Helium Microscopy. (ekstern lenke)

Medieintervju

• Bodil Holst (2010). Likestilling. (ekstern lenke)
• Bodil Holst; Hana Lukešová; Ida Bergstrøm (2017). Vikingene brukte undertøy av lin. (ekstern lenke)
• Ida Bergstrøm; Bodil Holst (2017). Bekymret for den frie forskningen. (ekstern lenke)
• Anne Marit Soltveit Pettersen; Bodil Holst (2022). Nanoteknologiens innovasjonskunstner. (ekstern lenke)
• Bodil Holst; Hilde Kristin Strand (2014). De praktiske edelsteinene. (ekstern lenke)
• Bodil Holst; Kim E. Andreassen (2011). Åbnet ny nanolab. (ekstern lenke)
• Bodil Holst; Kjersti Mjør; Ingvild Rugland et al. (2012). Milliardgavene vi ikke må ta for gitt; Ser gennom atomer. (ekstern lenke)
• Stephanie Pain; Bodil Holst (2013). Shrouded in Mystery. (ekstern lenke)
• Bodil Holst; Ida Bergstrøm (2016). Unge forskere kan for lite om publisering. (ekstern lenke)
• Bodil Holst (2012). Der Smått er best. (ekstern lenke)
• Bodil Holst; Tor Arne Fanghol (2014). Bodils smykke kan gi it-revolution. (ekstern lenke)
• Bodil Holst; Ingeborg Kristvik (2014). Forskingside-pris til Bodil. (ekstern lenke)
• Bodil Holst; Ida Bergstrøm (2013). Studien av dei små tinga. (ekstern lenke)
• Bodil Holst; Gunnar Wiederstrøm (2012). Mohn-Millioner i tynn tråd. (ekstern lenke)
• Bodil Holst; Pål Engesæter (2017). Vikingerne likte mykt og lekkert undertøy. (ekstern lenke)

Vitenskapelig litteraturgjennomgang

• Adria Salvador Palau; Sabrina Daniela Eder; Gianangelo Bracco et al. (2023). Neutral helium atom microscopy. (ekstern lenke)
• Johannes Fiedler; Kristian Berland; James Borchert et al. (2022). Perspectives on weak interactions in complex materials at different length scales. (ekstern lenke)
• Bodil Holst; Gil Alexandrowicz; Nadav Avidor et al. (2021). Material properties particularly suited to be measured with helium scattering: selected examples from 2D materials, van der Waals heterostructures, glassy materials, catalytic substrates, topological insulators and superconducting radio frequency materials. (ekstern lenke)
• Yousef Abou El-Neaj; Cristiano Alpigiani; Sana Amairi-Pyka et al. (2020). AEDGE: Atomic Experiment for Dark Matter and Gravity Exploration in Space. (ekstern lenke)
• Iván Alonso; Cristiano Alpigiani; Brett Altschul et al. (2022). Cold atoms in space: community workshop summary and proposed road-map. (ekstern lenke)
• Adam Abdalla; Mahiro Abe; Sven Abend et al. (2025). Terrestrial Very-Long-Baseline Atom Interferometry: summary of the second workshop. (ekstern lenke)
• Hana Lukesova; Bodil Holst (2024). Identifying plant fibres in cultural heritage with optical and electron microscopy: how to present results and avoid pitfalls. (ekstern lenke)
• Sven Abend; Baptiste Allard; Ivan Alonso et al. (2024). Terrestrial very-long-baseline atom interferometry: Workshop summary. (ekstern lenke)

Konferanseabstrakt

• Brooke Hanson; Bodil Holst (2012). Wild Textile. (ekstern lenke)
• Bodil Holst (2013). Poisson's spot with molecules. (ekstern lenke)
• Bodil Holst; Åshild Fredriksen; Anne Borg (2013). On the Recruitment and Participation of Women in Physics: A Report from Norway. (ekstern lenke)

Masteroppgave

• Bodil Holst; Thomas Myking Bolstad; Thomas Reisinger (2012). Fabrication of Nanostructured Fresnel Zone Plates for Atom Optics Using Electron Beam Lithography. (ekstern lenke)
• Bodil Holst; Eugen Florin Turcu; Simen Kaasa Hellner (2020). Evaluation of the Field Kelvin Probe for non-inrusive condition monitoring of concrete reinforcements. (ekstern lenke)
• Bodil Holst; Håkon Eidsvåg; Martin Møller Greve et al. (2016). A Solar Absorber Based on Metal Nanoparticles. (ekstern lenke)
• Bodil Holst; Øystein Bachmann Strand; Alexandre Micoulet (2012). Micro-assisted fabrication of collagen matrix to study cell mechanical behaviour under micro-confinement. (ekstern lenke)
• Bodil Holst; Espen Werdal Selfors; Ida Pernille Løvås (2022). Anti-Icing Properties of Diamond Surfaces. (ekstern lenke)
• Bodil Holst; Ranveig Flatabø; Kristian A. B. Sørhaug (2022). The Neutral Helium Microscope. (ekstern lenke)
• Jenny Louise Luneng; Bodil Holst (2011). Low-energy surface vibratio measurements on the alpha-quarts(0001) surface. (ekstern lenke)
• Bodil Holst; Xiaodong Guo; Pengfei Han (2014). Wettability of ZnO Nanostructure Fabricated Using Electron Beam Lithography and Hydrothermal Growth. (ekstern lenke)
• Espen Selfors; Martin Møller Greve; Bodil Holst (2017). Fabrication of large free-standing nanostructured zone plates for focusing a Bose-Einstein condensate. (ekstern lenke)
• Torbjørn Egeland-Eriksen; Bodil Holst; Martin Møller Greve (2018). Simulations of the Effect of Integrated Metal Nanoparticles on the Optical Absorptance of Perovskite Photovoltaic Solar Cells. (ekstern lenke)
• Bodil Holst; Cathrine Fydenberg Marthinussen (2010). Quantification of cell spreading in a cinfined microenvironment: A tool for cancer diagnostics?. (ekstern lenke)
• Oddgeir Randa Heggland; Bodil Holst; Ivar Wærnhus (2012). Production, Testing and Characterisation of Materials for Reversible Oxygen Electrodes in Solid Oxide Fuel Cells. (ekstern lenke)
• Bodil Holst; Wiktoria Karolina Szapoczka; Mohanad Lotfi Abdallah (2023). Anti-icing properties of ZnO surfaces prepared via radion frequency sputtering compared to a bare aluminium suface with native oxide. (ekstern lenke)
• Bodil Holst; Sabrina Daniela Eder; Truls Andersen (2015). Characterization of a neutral helium beam for helium microscopy. (ekstern lenke)
• Mirjam Dyrhovden Fjell; Bodil Holst; Martin Møller Greve (2020). An investigation of the optical properties of metal nanoparticles for the application in a diffuse light solar cell. (ekstern lenke)
• Håvard Stavn Ugulen; Martin Møller Greve; Ranveig Flatabø et al. (2018). Optical Properties of Gold Nanoparticle Arrays Fabricated on a Waveguide Material. (ekstern lenke)
• Bodil Holst; John Benjamin Lothe; Justas Zalieckas (2021). Low-temperature microwave plasma cheical vapour deposition of nanocrystalline diamonds for erosion protection on wind turbine blades. (ekstern lenke)
• Eivind Eidsnes Johannessen; Bodil Holst; Thomas Reisinger (2011). Field Ionization of Molecules. (ekstern lenke)
• Selda Ekiz; Bodil Holst; Thomas Reisinger (2011). A Neew Approach to Compund Specific Gas Detection - FIDO. (ekstern lenke)
• Martin Møller Greve; Bodil Holst (2010). Testing nano-structured Fresnel zoneplates for neutral helium microscopy on a molecular-beam ultra-high-vacuum apparatus. (ekstern lenke)
• Thomas Odijk Håvardstun; Bodil Holst; Martin Møller Greve (2013). Optical Properties of Metal Nanoparticle Arrays created using Electron Beam Lithography. (ekstern lenke)
• Bodil Holst; Ranveig Flatabø; Martin Møller Greve (2014). Optical Properties of Metal Nanoparticle Arrays Created using Electron Beam Lithography for Solar Cell Application. (ekstern lenke)
• Bodil Holst; Wiktoria Karolina Szapoczka; Peter James Thomas et al. (2023). Smart Surfaces for Anti-Biofouling and Biofilm Model Development. (ekstern lenke)
• Bodil Holst; Espen Werdal Selfors; Anita Isabell Lien et al. (2022). Investigating Ice Formation with NMR and Contact Angle Goniometry. (ekstern lenke)
• Sondre Sandberg; Bodil Holst; Dhayalan Velauthapillai (2017). Synthesis, Characterization and Improvement of a Dye Sensitized Solar Cell. (ekstern lenke)
• Christian Bergfjord; Bodil Holst (2009). Flax or Nettle? Using Modern Nano-Scale Analysis Techniques to Investigate Ancient Textiles. (ekstern lenke)
• Bodil Holst; Alexandre Malik Vial; Jakob J. Stamnes (2012). Simulation tool for matter-wave optics instrumentation. (ekstern lenke)
• Bodil Holst; Ranveig Flatabø; Signe Kyrkjebø et al. (2020). Oxidized Graphene on Ir(111): Wetting and Icephobic Properties Investigated on the Macroscopic and Atomic Scale. (ekstern lenke)
• Simen Hjellvik Askeland; Bodil Holst; Naureen Akhtar (2016). Smart Surfaces: Design, Structuring and Characterization. (ekstern lenke)
• Bodil Holst; Erik Mannseth; Lars Egil Helseth (2011). Design and construction of a continuous wave STED microscpe: The first steps. (ekstern lenke)
• Adrià Salvador Palau; Bodil Holst; Gianangelo Bracco et al. (2015). Time of Flight Modelling and Direct Monte Carlo Simulations for a Neutral Helium Microscope. (ekstern lenke)
• Thomas Hare; Mihaela Roxana Cimpan; Alexander Sauter et al. (2018). Impedance-based microfluidic device for assessing the cytotoxicity of nanoparticles. (ekstern lenke)
• Johannes Fiedler; Bodil Holst; Eivind Kristen Osestad et al. (2022). Modeling a gas sensor based on quantum vacuum fluctuations. (ekstern lenke)

Antologi

• Gianangelo Bracco; Bodil Holst (2013). Surface science techniques. (ekstern lenke)

Populærvitenskapelig artikkel

• Bodil Holst (2020). Nanovitenskap: Atomar Avbilding og kemisk analyse med elektronstråler, Kavliprisen 2020. (ekstern lenke)
• Bodil Holst; Ole Didrik Lærum (2014). Mikromysterier. (ekstern lenke)
• Bodil Holst (2017). Bergkrystallens hemmelighet. (ekstern lenke)
• Bodil Holst (2012). Nanoskopi - Mikroskopi på Nanoskala. (ekstern lenke)

Vitenskapelig bokkapittel

• Anne Elisabeth Bjune; Bjørn Grung; Bodil Holst et al. (2017). Testing the impact of active learning in first year undergraduate natural science courses. (ekstern lenke)
• Stamatina Karakitsiou; Sabrina Daniela Eder; Bodil Holst et al. (2015). Design, development and testing of apparatus to study gas diffusion in nanochannels. (ekstern lenke)
• Bodil Holst; Gianangelo Bracco (2013). Probing surfaces with thermal He atoms : scattering and microscopy with a soft touch. (ekstern lenke)

Doktorgradsavhandling

• Hana Lukesova; Bodil Holst (2021). Fibres in Heritage Objects : Identification and Characterisation by Imaging Techniques. (ekstern lenke)
• Vårin Renate Andvik Holm; Bodil Holst; Martin Møller Greve (2018). Nanostructured Materials for Solar Energy Applications. (ekstern lenke)
• Ranveig Flatabø; Bodil Holst; Martin Møller Greve (2018). Charged Particle Lithography for the Fabrication of Nanostructured Optical Elements. (ekstern lenke)
• Vegard Gjerde; Stein Dankert Kolstø; Bodil Holst et al. (2021). Integrating Cognitive Learning Strategies into Physics Instruction : Developing students’ approaches to physics and learning. (ekstern lenke)
• Bodil Holst; Sabrina Daniela Eder; William Allison (2012). A neutral matter-wave microscope (NEMI): Design and setup. (ekstern lenke)
• Stamatina Karakitsiou; Alex Christian Hoffmann; Bodil Holst (2018). Experimental and theoretical study of pressure-driven transport of gases in micro and nanopores. (ekstern lenke)
• Martin Møller Greve; Bodil Holst; Philip Denby (2013). Nanostructures for the manipulation of electomagnetic waves. (ekstern lenke)
• Thomas Reisinger; Bodil Holst; Henry I Smith (2011). Free-standing, axially-symmetric diffraction gratings for neutral matter-waves: experiments and fabrication. (ekstern lenke)

Rettelse i tidsskrift

• Christin Büchner; Sabrina Daniela Eder; Torstein Nesse et al. (2021). Bending Rigidity of 2D Silica (vol 120, 226101, 2018). (ekstern lenke)

Forskningsrapport

• Bodil Holst (2016). EU Project Neutral Helium Microscopy (NEMI) final report. (ekstern lenke)
• Bodil Holst (2008). Imaging with Neutral Atoms - Final Report EU FP6 NEST Strep Project INA, contract nr. 509014. (ekstern lenke)

Lederartikkel

• Christian Bergfjord; Sabine Karg; Antoinette Rast-Eicher et al. (2010). Comment on "30,000-Year-Old Wild Flax Fibers". (ekstern lenke)

Kapittel i fagbok

• Bodil Holst; Olav Solgaard (2018). Faggruppe Udtalelse: Applied Micro- and Nano-systems. (ekstern lenke)
• Bodil Holst (2018). Kan Nanoteknologi Redde Verden, can nanotechnology save the world?. (ekstern lenke)

Deltakelse i radio eller TV

• Bodil Holst; Matthew Gunther (2016). Book Club - Scientific paper writing. (ekstern lenke)

Leserbrev

• Espen Werdal Selfors; Ranveig Flatabø; Jean-Nicolas Audinot et al. (2024). HIM-SIMS imaging of fluorinated polycrystalline graphene on copper. (ekstern lenke)
• Bodil Holst (2016). Forskningen viser at ... Kvartskrystallens Hemmelighet. (ekstern lenke)

Utstillingsproduksjon

• Siri Skretting Jansen; Øystein James Jansen; William Helland-Hansen et al. (2019). Krystaller - Se de vokser!. (ekstern lenke)

Lærebok

• Bodil Holst (2015). Scientific Paper Writing - A Survival Guide. (ekstern lenke)

Se en full oversikt over publikasjoner i Cristin

Selected Recent Publications

S. D. Eder, S. K. Hellner, S. Forti, J. M. Nordbotten, J. R. Manson, C. Coletti, and B. Holst, Temperature-Dependent Bending Rigidity of AB-Stacked Bilayer Graphene. Phys. Rev. Lett. 2021, 127 266102

Holst, B. et al. Material properties particularly suited to be measured with helium scattering: selected examples from 2D materials, van der Waals heterostructures, glassy materials, catalytic substrates, topological insulators and superconducting radio frequency materials. Physical Chemistry, Chemical Physics 2021: 23, 7653-7672

Nesse, Torstein; Simonsen, Ingve; Holst, Bodil. Nanometer-Resolution Mask Lithography with Matter Waves: Near-Field Binary Holography. Physical Review Applied 2019; 11, 024009 (editors' suggestion) https://doi.org/10.1103/PhysRevApplied.11.024009

Büchner, Christin; Eder, Sabrina Daniela; Nesse, Torstein; Kuhness, David; Schlexer, Philomena; Pacchioni, Gianfranco; Manson, Joseph R.; Heyde, Markus; Holst, Bodil; Freund, Hans Joachim. Bending rigidity of 2D silica. Physical Review Letters 2018; 120, 1-6 https://doi.org/10.1103/PhysRevLett.120.226101

Akhtar, Naureen; Anemone, Gloria; Farias, Daniel; Holst, Bodil. Fluorinated graphene provides long lasting ice inhibition in high humidity. Carbon 2018;141. s451-456 https://doi.org/10.1016/j.carbon.2018.09.008

Akhtar, Naureen; Thomas, Peter James; Svardal, Benny; Almenningen, Stian; De Jong, Edwin; Magnussen, Stian; Onck, Patrick R; Fernø, Martin; Holst, Bodil. Pillars or Pancakes? Self-Cleaning Surfaces without Coating. Nano letters 2018; 141, 7509-7514 https://doi.org/10.1021/acs.nanolett.8b02982

Eder, Sabrina Daniela; Flatabø, Ranveig; Ravn, Anders K; Samelin, Bjørn; Greve, Martin Møller; Reisinger, Thomas; Holst, Bodil. Fast resolution change in neutral helium atom microscopy. Review of Scientific Instruments 2018; 89, 053702 (editors' pick) https://doi.org/10.1063/1.5029385

Valluvar Oli, Arivazhagan; Schmitz, F.D.; Vullum, Per Erik; Van Helvoort, Antonius; Holst, Bodil. Atomic resolution imaging of beryl: an investigation of the nano-channel occupation. Journal of Microscopy 2017 ; 265, 245-250 https://doi.org/10.1111/jmi.12493

Lukešová, Hana; Salvador Palau, Adria; Holst, Bodil. Identifying plant fibre textiles from Norwegian Merovingian Period and Viking Age graves: The Late Iron Age Collection of the University Museum of Bergen. Journal of Archaeological Science: Reports 2017; 13, 281-285 https://doi.org/10.1016/j.jasrep.2017.03.051 - Highlighted in Nature Materials: https://www.nature.com/articles/nmat4950

Books:

Scientific Paper Writing: A Survival Guide, Illustrated by Jorge Cham (Phd Comics):  https://www.amazon.com/Scientific-Paper-Writing-Survival-Guide-ebook/dp/B019ZI93XM

Surface Science Techniques, Springer Series in Surface Sciences, G. Bracco, B. Holst ed. https://www.springer.com/gp/book/9783642342424

Ongoing, externally funded projects:

2D Material Properties - NFR FRIPRO

Nanoscale mask-based lithography with metastable helium atoms (www.nanolace.eu) - FET-Open sponsored Project

Prevention of Erosion on Off-Shore Wind Turbine Blades - Equinor sponsored project (Akademiavtalen)

ISOS: Multifunctional icephobic, robust, lightweight and transparent coatings for windows and lenses - M-eranet sponsored Project

PAFYS: Princippbaseret aktiv undervisning for sterkere fysikk- og ingeniørstudenter - DIKU sponsored project