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    <title language="eng">Influence of various conditions on the course of the reduction of iron oxide with hydrogen in thermogravimetric studies</title>
    <abstract language="eng">The reduction of iron oxide with hydrogen is a widely studied research topic with increasing interest for several reasons. One of them is the growing demand for steel in the world and the CO2 emissions caused by its production. Hydrogen direct reduction is a very promising solution to green steelmaking and has the highest potential to reduce CO2 emissions. The direct reduction process is commonly associated with the reduction of pellets in shaft furnaces. But novel technologies, such as fluidized beds or entrained-flow reactors, which reduce directly iron ore fines must be further developed as they can reach much higher energy efficiencies. A second motivation to study the reduction of iron oxide with H2 is the growing need for fossil fuel-free energy carriers. Green hydrogen can be used to reduce iron oxide powders; the reduced iron, featuring high energy density, could serve as an energy carrier in "green" power plants. Both topics are in the scope of our research, dealing with thermogravimetric analyses of the reduction of iron oxide powders with hydrogen.</abstract>
    <parentTitle language="eng">2nd ESTEP Hydrogen Conference, 2022-11-29 - 2022-12-01, Versailles, France.</parentTitle>
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      <firstName>Michalina</firstName>
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    <title language="eng">An experimental and CFD study of the iron ore fixed bed structure and its influence on the direct reduction process</title>
    <abstract language="eng">The current circumstances of global warming, improved energy efficiency, and the higher suitability of Direct Reduced Iron (DRI) in Electric Arc Furnaces (EAF) for steel production necessitate a transition in the iron and steelmaking process from the traditional blast furnace/basic oxygen furnace to the more sustainable and eco-friendly direct reduction process. This reduction can be effectively studied in a fixed bed configuration, which bridges the gap between fundamental investigations on a single pellet and industrial shaft furnaces. While an average porous media model may be used to simulate the fixed bed reactor, this approach fails to account for the impact of intra- and inter-pellet fluid dynamics as well as heat and mass transfer. To accurately represent the geometric structure of iron ore pellet beds, an experimental construction must be accompanied by a particle-resolved CFD model. This article is divided into successive steps. The first step consists in the experimental construction of iron ore beds with different pellet size distributions (10-12.5 mm and 12.5-16 mm) and of the calculation of the bulk bed porosity and radial average bed porosity. The discrete element method (DEM) is further used to computationally reconstruct random packed beds of 0.5 kg industrial pellets based on the experimental data of pellet size distributions. A 3D domain is created using particle position data from the previous step, and pellets and voids are meshed at different refinement levels. Finally, CFD simulations are carried out to investigate the reduction of iron oxide pellets using H2 as a reducing gas in a fixed bed, considering available experimental data for model validation. The effect of three different bed structures on the overall conversion degree of iron ore is examined. This approach allows for successful modeling of a fixed bed using experimental input and investigation into the potential effects of the bed structure on the overall conversion during the direct reduction of the iron ore pellets.</abstract>
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    <title language="eng">Particle-resolved computational modeling of hydrogen-based direct reduction of iron ore pellets in a fixed bed. Part II: Influence of the pellet sizes and shapes</title>
    <parentTitle language="eng">International Journal of Hydrogen Energy</parentTitle>
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