If needed, copies of publications can be obtained upon simple request to: karel.venken@uantwerpen.be or priyanka.shaw@uantwerpen.be
727. | Correction: From the Birkeland–Eyde process towards energy-efficient plasma-based NOx synthesis: A techno-economic analysis. K.H.R. Rouwenhorst, F. Jardali, A. Bogaerts and L. Lefferts |
726. | Injectable plasma-treated alginate hydrogel for oxidative stress delivery to induce immunogenic cell death in osteosarcoma. M. Živanic, A. Espona-Noguera, H. Verswyvel, E. Smits, A. Bogaerts, A. Lin and C. Canal |
725. | Avoiding solid carbon deposition in plasma-based dry reforming of methane. O. Biodo, C.F.A.M. van Deursen, A. Hughes, A. van de Steeg, W. Bongers, M.C.M. van de Sanden, G. van Rooij and A. Bogaerts |
723. | Special issue on “Dielectric barrier discharges and their applications” in Commemoration of the 20th anniversary of Dr. Ulrich Kogelschatz’s work. A. Bogaerts |
722. | Plasma-assisted dry reforming of CH4: How small amounts of O2 addition can drastically enhance the oxygenate production-experiments and insights from plasma chemical kinetics modeling. S. Li, J. Sun, Y. Gorbanev, K. van’t Veer, B. Loenders, Y. Yi, T. Kenis, Qi Chen and A. Bogaerts ACS Sustainable Chem. Eng., 11, 15373−15384 (2023) and supporting information |
716. | Plasma-based CO2 conversion: How to correctly analyze the performance? B. Wanten, R. Vertongen, R. De Meyer and A. Bogaerts J. Energy Chem., 86, 180-196 (2023) and supplementary information I and supplementary information II |
713. | Is a catalyst always beneficial in plasma catalysis? Insights from the many physical and chemical interactions. B. Loenders, R. Michiels and A. Bogaerts J. Energy Chem., 85, 501-533 (2023) and supplementary information |
708. | How important is reactor design for CO2 conversion in warm plasmas? R. Vertongen and A. Bogaerts J. CO2 Util., 72, 102510 (2023) and supporting information |
701. | Challenges in unconventional catalysis. A. Bogaerts, G. Centi, V. Hessel and E. Rebrov |
699. | Plasma-catalytic ammonia synthesis: Packed catalysts act as plasma modifiers. C. Ndayirinde, Y. Gorbanev, R.-G. Ciocarlan, R. De Meyer, A. Smets, E. Vlasov, S. Bals, P. Cool and A. Bogaerts Catalysis Today, 419, 114156 (2023) and supporting information |
696. | Inactivation of SARS-CoV‑2 and other enveloped and non-enveloped viruses with non-thermal plasma for hospital disinfection. M. Sahun, A. Privat-Maldonado, A. Lin, N. De Roeck, L. Van der Heyden, M. Hillen, J. Michiels, G. Steenackers, E. Smits, K.K. Ariën, P.G. Jorens, P. Delputte, and A. Bogaerts |
692. | Modelling post-plasma quenching nozzles for improving the performance of CO2 microwave plasmas. S. Van Alphen, A. Hecimovic, C.K. Kiefer, U. Fantz, R. Snyders and A. Bogaerts Chem. Eng. J., 462, 142217 (2023) and supporting information |
691. | Methane coupling in nanosecond pulsed plasmas: Correlation between temperature and pressure and effects on product selectivity. E. Morais, E. Delikonstantis, M. Scapinello, G. Smith, G.D. Stefanidis and A. Bogaerts Chem. Eng. J., 462, 142227 (2023) and supporting information |
688. | Acquired non-thermal plasma resistance mediates a shift towards aerobic glycolysis and ferroptotic cell death in melanoma. A. Lin, M. Sahun, E. Biscop, H. Verswyvel, J. De Waele, J. De Backer, C. Theys, B. Cuypers, K. Laukens, W. Vanden Berghe, E. Smits and A. Bogaerts |
687. | Nitrogen fixation by an arc plasma at elevated pressure to increase the energy efficiency and production rate of NOx. I. Tsonev, C. O’Modhrain, A. Bogaerts and Y. Gorbanev ACS Sustainable Chem. Eng., 11, 1888−1897 (2023) and supporting information |
677. | Producing oxygen and fertilizer with the Martian atmosphere by using microwave plasma. S. Kelly, C. Verheyen, A. Cowley and A. Bogaerts |
671. | The pro- and anti-tumoral properties of gap junctions in cancer and their role in therapeutic strategies. |
663. | The 2022 Plasma Roadmap: Low temperature plasma science and technology. I. Adamovich, S. Agarwal, E. Ahedo, L.L. Alves, S. Baalrud, N. Babaeva, A. Bogaerts, A. Bourdon, P.J. Bruggeman, C. Canal, E.H. Choi, S. Coulombe, Z. Donkó, D.B. Graves, S. Hamaguchi, D. Hegemann, M. Hori, H.-H. Kim, G.M.W. Kroesen, M.J. Kushner, A. Laricchiuta, X. Li, T.E. Magin, S. Mededovic Thagard, V. Miller, A.B. Murphy, G.S. Oehrlein, N. Puac, R.M. Sankaran, S. Samukawa, M. Shiratani, M. Šimek, N. Tarasenko, K. Terashima, E. Thomas Jr., J. Trieschmann, S. Tsikata, M.M. Turner, I.J. van der Walt, M.C.M. van de Sanden and T. von Woedtke |
661. | Foundations of plasma catalysis for environmental applications. |
657. | Effusion nozzle for energy-efficient NOx production in a rotating gliding arc plasma reactor. S. Van Alphen, H. Ahmadi Eshtehardi, C. O’Modhrain, J. Bogaerts, H. Van Poyer, J. Creel, M.-P. Delplancke, R. Snyders and A. Bogaerts Chem. Eng. J., 443, 136529 (2022) and its supporting information |
656. | The effect of local non-thermal plasma therapy on the cancerimmunity cycle in a melanoma mouse model. A. Lin, J. De Backer, D. Quatannens, B. Cuypers, H. Verswyvel, E. Cardenas De La Hoz, B. Ribbens, V. Siozopoulou, J. Van Audenaerde, E. Marcq, F. Lardon, K. Laukens, S. Vanlanduit, E. Smits and A. Bogaerts Bioeng. Transl Med., 2022, e10314 (2022) and its supporting information. |
655. | Energy-efficient small-scale ammonia synthesis process with plasma-enabled nitrogen oxidation and catalytic reduction of adsorbed NOx. L.Hollevoet, E. Vervloessem, Y. Gorbanev, A. Nikiforov, N. De Geyter, A. Bogaerts and J.A. Martens ChemSusChem, 2022, e202102526 (2022) and its supporting information |
654. | Carbon bed post-plasma to enhance the CO2 conversion and remove O2 from the product stream. |
650. | Sustainable NOx production from air in pulsed plasma: elucidating the chemistry behind the low energy consumption. |
647. | Dry reforming of methane in an atmospheric pressure glow discharge: Confining the plasma to expand the performance. |
646. | Oxygenate production from plasma-activated reaction of CO2 and ethane. |
643. | Nitrogen fixation in an electrode-free microwave plasma. |
638. | Multiscale modeling of plasma–surface interaction - General picture and a case study of Si and SiO2 etching by fluorocarbon-based plasmas. |
637. | Plasma catalysis for ammonia synthesis: A microkinetic modeling study on the contributions of Eley−Rideal reactions. |
628. | Selective oxidation of CH4 to CH3OH through plasma catalysis: Insights from catalyst characterization and chemical kinetics modelling. |
627. | From the Birkeland–Eyde process towards energy-efficient plasma-based NOX synthesis: a techno-economic analysis. |
622. | Oxidative damage to hyaluronan–CD44 interactions as an underlying mechanism of action of oxidative stress-inducing cancer therapy. |
619. | Sustainable gas conversion by gliding arc plasmas: A new modelling approach for reactor design improvement. |
611. | Oxidation of innate immune checkpoint CD47 on cancer cells with non-thermal plasma. |
609. | NOx production in a rotating gliding arc plasma: Potential avenue for sustainable nitrogen fixation. |
607. | Spatially and temporally non-uniform plasmas: Microdischarges from the perspective of molecules in a packed bed plasma reactor. |
604. | On the kinetics and equilibria of plasma-based dry reforming of methane. |
603. | How gas flow design can influence the performance of a DBD plasma reactor for dry reforming of methane. |
600. | Towards green ammonia synthesis through plasma-driven nitrogen oxidation and catalytic reduction. |
599. | Critical evaluation of the interaction of reactive oxygen and nitrogen species with blood to inform the clinical translation of nonthermal plasma therapy. |
590. | Plasma-driven catalysis: green ammonia synthesis with intermittent electricity. |
584. | Cold atmospheric plasma treatment for pancreatic cancer - The importance of pancreatic stellate cells. |
582. | Modeling plasmas in analytical chemistry - An example of cross-fertilization. |
581. | Plasma-based CO2 conversion: To quench or not to quench? |
580. | The 2020 plasma catalysis roadmap. |
575. | Plasma-based N2 fixation into NOx: Insights from modeling toward optimum yields and energy costs in a gliding arc plasmatron. |
574. | Plasma technology for CO2 conversion: A personal perspective on prospects and gaps. |
572. | Predicted influence of plasma activation on nonoxidative coupling of methane on transition metal catalysts. |
565. | Dual-vortex plasmatron: a novel plasma source for CO2 conversion. |
561. | CO2 and CH4 conversion in “real” gas mixtures in a gliding arc plasmatron: how do N2 and O2 affect the performance? |
559. | Nitrogen fixation with water vapor by nonequilibrium plasma: Towards sustainable ammonia production. |
555. | Power pulsing to maximize vibrational excitation efficiency in N2 microwave plasma: A combined experimental and computational study. |
554. | Ensemble-based molecular simulation of chemical reactions under vibrational nonequilibrium. |
547. | Influence of cell type and culture medium on determining cancer selectivity of cold atmospheric plasma treatment. |
545. | Burning questions of plasma catalysis: Answers by modeling. |
543. | Improving the energy efficiency of CO2 conversion in nonequilibrium plasmas through pulsing. |
540. | Synergistic effects of melittin and plasma treatment: A promising approach for cancer therapy. |
537. | Reactivity and stability of plasma-generated oxygen and nitrogen species in buffered water solution: a computational study. |
534. | Suppressing the formation of NOx and N2O in CO2/N2 dielectric barrier discharge plasma by adding CH4: scavenger chemistry at work. |
532. | Combining CO2 conversion and N2 fixation in a gliding arc plasmatron. |
530. | How process parameters and packing materials tune chemical equilibrium and kinetics in plasma-based CO2 conversion. |
529. | Molecular evidence for feedstock-dependent nucleation mechanisms of CNTs. |
525. | Non-thermal plasma as a unique delivery system of short-Lived reactive oxygen and nitrogen species for immunogenic cell death in melanoma cells. |
519. | Atmospheric pressure glow discharge for CO2 conversion: Model-based exploration of the optimum reactor configuration. |
516. | Modeling plasma-based CO2 and CH4 conversion in mixtuires with N2, O2 and H2O: The bigger plasma chemistry picture. |
515. | Plasma technology: An emerging technology for energy storage. |
514. | Streamer propagation in a packed bed plasma reactor for plasma catalysis applications. |
468. | Plasma technology - a novel solution for CO2 conversion? |
467. | Dry reforming of methane in a gliding arc plasmatron: towards a better understanding of the plasma chemistry. |
466. | Gliding arc plasmatron: provodong an alternative method for carbon dioxide conversion. |
465. | Nitrogen fixation by gliding arc plasma: better insight by chemical kinetics modelling. |
449. | Toward the understanding of selective Si nano-oxidation by atomic scale simulations. |
432. | Molecular dynamics simulations for plasma-surface interactions. |
429. | Synergistic effect of electric field and lipid oxidation on the permeability of cell membranes. |
408. | CO2 conversion in a dielectric barrier discharge plasma: N2 in the mix as a helping hand or problematic impurity? |
401. | Direct observation of realistic-temperature fuel combustion mechanisms in atomistic simulations. |
400. | Effect of lipid peroxidation on membrane permeability of cancer and normal cells subjected to oxidative stress. |
386. | Can plasma be formed in catalyst pores? A modeling investigation. |