{"id":1205,"date":"2025-11-11T10:54:12","date_gmt":"2025-11-11T13:54:12","guid":{"rendered":"https:\/\/eventos.abcm.org.br\/encit2026\/?page_id=1205"},"modified":"2026-09-25T09:10:54","modified_gmt":"2026-09-25T12:10:54","slug":"keynotes","status":"publish","type":"page","link":"https:\/\/eventos.abcm.org.br\/encit2026\/keynotes\/","title":{"rendered":"Keynotes"},"content":{"rendered":"\r\n    \r\n        <section class=\"banner-int \" style=\"background-image: url('https:\/\/eventos.abcm.org.br\/encit2026\/wp-content\/uploads\/2025\/03\/luiz-fellipe-1pHBxk8WW4Q-unsplash-scaled.jpg');\">\r\n            <div class=\"container-content\">\r\n                <h2> Keynotes<\/h2>\r\n                <h3>21<sup>st<\/sup> Brazilian Congress of Thermal Sciences and engineering<\/h3>\r\n            <\/div>\r\n        <\/section>\r\n\r\n    \r\n\n\n\n    \n        \n            <section class=\"bg-gray page-section\">\n                <div class=\"container-content\">\n                    <h2 class=\"title\">Keynote Speakers ENCIT 2026<\/h2>\n\n                    <div class=\"block-accordion\">\n                        <div class=\"accordion-container\">\n\n                                                            <div class=\"ac\">\n                                    <div class=\"ac-header ac-trigger\">\n                                        <!-- classe no-image necess\u00e1ria caso n\u00e3o tenha imagem cadastrada -->\n                                                                                <div class=\"image no-image\">\n                                                                                    <\/div>\n                                        <div class=\"content\">\n                                            <h3>Alexandre Kupka da Silva<\/h3>\n                                            <span>Universidade Federal de Santa Catarina \u2013 UFSC, Brasil<\/span>\n                                            <p class=\"lecture\">On the use of non-intrusive machine learning techniques applied to phase change processes<\/p>\n                                        <\/div>\n                                        <span class=\"icon-arrow_forward_ios arrow arrow-ac\"><\/span>\n                                    <\/div>\n                                    <div class=\"ac-panel\">\n                                        <div class=\"inner-content\">\n                                            <p><strong>Short description:<\/strong> This talk will focus on applying machine learning and computer vision to phase change processes. It will demonstrate that simple, non-optimized neural networks can classify instantaneous boiling regimes, detect the onset of boiling crises, and quantify heat flux from visualization, all using low-speed, low-resolution frames.<\/p>\n                                        <\/div>\n                                    <\/div>\n                                <\/div>\n                                                            <div class=\"ac\">\n                                    <div class=\"ac-header ac-trigger\">\n                                        <!-- classe no-image necess\u00e1ria caso n\u00e3o tenha imagem cadastrada -->\n                                                                                <div class=\"image no-image\">\n                                                                                    <\/div>\n                                        <div class=\"content\">\n                                            <h3>Catherine Colin<\/h3>\n                                            <span>IMFT \u2013 Institut de M\u00e9canique des Fluides de Toulouse, France<\/span>\n                                            <p class=\"lecture\">Growth rate and dynamics of isolated vapour bubbles in a shear flow in microgravity<\/p>\n                                        <\/div>\n                                        <span class=\"icon-arrow_forward_ios arrow arrow-ac\"><\/span>\n                                    <\/div>\n                                    <div class=\"ac-panel\">\n                                        <div class=\"inner-content\">\n                                            <p><strong>Short description:<\/strong> Presentation of an experiment we performed on an isolated vapour bubble nucleated on a heated wall in a shear flow in microgravity conditions. This experiment was performed on the International Space Station under the supervision of the European Space Agency and in collaboration with other colleagues. We will focus on experiments with a shear flow, describing the bubble&#8217;s growth, sliding along the wall and detachment by coalescence. We will compare the experimental results with theoretical models and numerical simulations.<\/p>\n                                        <\/div>\n                                    <\/div>\n                                <\/div>\n                                                            <div class=\"ac\">\n                                    <div class=\"ac-header ac-trigger\">\n                                        <!-- classe no-image necess\u00e1ria caso n\u00e3o tenha imagem cadastrada -->\n                                                                                <div class=\"image no-image\">\n                                                                                    <\/div>\n                                        <div class=\"content\">\n                                            <h3>Juliana Braga Rodrigues Loureiro<\/h3>\n                                            <span>Universidade Federal do Rio de Janeiro \u2013 UFRJ, Brasil<\/span>\n                                            <p class=\"lecture\">Experimental investigation of particle-laden flows for the understanding of scaling formation in pipes and valves.<\/p>\n                                        <\/div>\n                                        <span class=\"icon-arrow_forward_ios arrow arrow-ac\"><\/span>\n                                    <\/div>\n                                    <div class=\"ac-panel\">\n                                        <div class=\"inner-content\">\n                                            <p><strong>Short description:<\/strong> Solid-liquid flows are ubiquitous in nature and technology. Different flow behaviors and patterns can be observed depending on parameters such as concentration, density ratios and time scales. Complexity increases when the discrete particles are formed by a chemical reaction occurring within the flow. The particles are nucleated either at the wall or at the bulk of the fluid. These particles can grow, agglomerate or deposit along the flow path. This phenomenon of scaling formation at high Reynolds numbers depends on pressure, temperature, salt concentration and on the local flow and turbulent structures. This talk will address the experimental investigation of this problem, which is still poorly understood. In the oil and gas industry, valves, separation equipment and heat exchangers are prone to blockage due to scale formation. A thorough understanding of this phenomenon is fundamental for the development of control and mitigation strategies.<\/p>\n                                        <\/div>\n                                    <\/div>\n                                <\/div>\n                                                            <div class=\"ac\">\n                                    <div class=\"ac-header ac-trigger\">\n                                        <!-- classe no-image necess\u00e1ria caso n\u00e3o tenha imagem cadastrada -->\n                                                                                <div class=\"image no-image\">\n                                                                                    <\/div>\n                                        <div class=\"content\">\n                                            <h3>Luben Cabezas G\u00f3mez<\/h3>\n                                            <span>Escola de Engenharia de S\u00e3o Carlos \u2013 USP, Brasil<\/span>\n                                            <p class=\"lecture\">Application of LBM for Simulations of Multiphase Flows and Liquid-Vapor Phase Change Processes<\/p>\n                                        <\/div>\n                                        <span class=\"icon-arrow_forward_ios arrow arrow-ac\"><\/span>\n                                    <\/div>\n                                    <div class=\"ac-panel\">\n                                        <div class=\"inner-content\">\n                                            <p><strong>Short description:<\/strong> In this theme, we will present the LBM formulation used in our research group. Thereafter, results obtained from the simulation of multiphase flows will be presented, including isothermal multiphase flows and liquid-vapor phase-change processes. The main goal is to present LBM results for physical problems, considering real operational conditions and comparing numerical results with experimental data.<\/p>\n                                        <\/div>\n                                    <\/div>\n                                <\/div>\n                                                            <div class=\"ac\">\n                                    <div class=\"ac-header ac-trigger\">\n                                        <!-- classe no-image necess\u00e1ria caso n\u00e3o tenha imagem cadastrada -->\n                                                                                <div class=\"image no-image\">\n                                                                                    <\/div>\n                                        <div class=\"content\">\n                                            <h3>Paulo Roberto Maciel Lyra<\/h3>\n                                            <span>Universidade Federal de Pernambuco \u2013 UFPE, Brasil<\/span>\n                                            <p class=\"lecture\">Algebraic Multiscale Finite Volume Methods for Numerical Modelling of Multiphase Flows in Porous Media<\/p>\n                                        <\/div>\n                                        <span class=\"icon-arrow_forward_ios arrow arrow-ac\"><\/span>\n                                    <\/div>\n                                    <div class=\"ac-panel\">\n                                        <div class=\"inner-content\">\n                                            <p><strong>Short description:<\/strong> The numerical modelling and simulation of multiphase flows in complex porous media for various industrial and environmental applications, including oil and gas recovery, contaminant transport, nuclear waste disposal, and geothermal energy production, is challenging. This class of problems involves complex geometries and geological features associated with highly heterogeneous and anisotropic reservoirs. The current models in industrial applications include millions or even billions of degrees of freedom, resulting in very large-scale problems, and the systems of algebraic equations originating from their discretization are typically ill-conditioned, requiring significant computational resources and simulation times that can sometimes be prohibitive. A possible approach to address these challenges involves using multiscale techniques, either as reduced-order models or as preconditioners for high-fidelity models. This talk will present some recent achievements of our research group, in High-Performance Computing in Computational Mechanics \u2013 PADMEC, related to the development of robust locally conservative algebraic multiscale and multilevel methods.<\/p>\n                                        <\/div>\n                                    <\/div>\n                                <\/div>\n                                                            <div class=\"ac\">\n                                    <div class=\"ac-header ac-trigger\">\n                                        <!-- classe no-image necess\u00e1ria caso n\u00e3o tenha imagem cadastrada -->\n                                                                                <div class=\"image no-image\">\n                                                                                    <\/div>\n                                        <div class=\"content\">\n                                            <h3>Sandra K. S. Boetcher<\/h3>\n                                            <span>Embry-Riddle Aeronautical University, USA<\/span>\n                                            <p class=\"lecture\">Next-Generation Latent Heat Thermal Energy Storage Systems Enabled by Additive Manufacturing<\/p>\n                                        <\/div>\n                                        <span class=\"icon-arrow_forward_ios arrow arrow-ac\"><\/span>\n                                    <\/div>\n                                    <div class=\"ac-panel\">\n                                        <div class=\"inner-content\">\n                                            <p><strong>Short description:<\/strong> This presentation explores the use of additive manufacturing to advance latent heat thermal energy storage systems. By moving beyond the limitations of conventional fabrication methods, more compact and efficient designs with enhanced heat transfer performance can be achieved. This approach offers a new direction for the design and application of thermal energy storage technologies.<\/p>\n                                        <\/div>\n                                    <\/div>\n                                <\/div>\n                                                            <div class=\"ac\">\n                                    <div class=\"ac-header ac-trigger\">\n                                        <!-- classe no-image necess\u00e1ria caso n\u00e3o tenha imagem cadastrada -->\n                                                                                <div class=\"image no-image\">\n                                                                                    <\/div>\n                                        <div class=\"content\">\n                                            <h3>William Roberto Wolf<\/h3>\n                                            <span>Universidade Estadual de Campinas \u2013 UNICAMP, Brasil<\/span>\n                                            <p class=\"lecture\">High-fidelity simulations of supersonic turbines: characterization of supersonic boundary layers and shock-boundary layer interactions<\/p>\n                                        <\/div>\n                                        <span class=\"icon-arrow_forward_ios arrow arrow-ac\"><\/span>\n                                    <\/div>\n                                    <div class=\"ac-panel\">\n                                        <div class=\"inner-content\">\n                                            <p><strong>Short Description:<\/strong> Supersonic turbines find application in high-speed propulsion and power generation systems. This talk will present a detailed analysis of the supersonic boundary layers and shock-boundary layer interactions (SBLIs) forming over the curved surfaces of supersonic turbines. Studies of SBLIs have been sought mainly for canonical configurations such as oblique shocks impinging on flat plates. Although these flow configurations allow an assessment of relevant physical mechanisms taking place in turbulent supersonic flows, understanding the physics of SBLI phenomena for more realistic configurations with wall curvature is essential to develop efficient supersonic fluid machinery, including the development of effective cooling strategies and active flow control for multi-point operation.<\/p>\n                                        <\/div>\n                                    <\/div>\n                                <\/div>\n                                                            <div class=\"ac\">\n                                    <div class=\"ac-header ac-trigger\">\n                                        <!-- classe no-image necess\u00e1ria caso n\u00e3o tenha imagem cadastrada -->\n                                                                                <div class=\"image no-image\">\n                                                                                    <\/div>\n                                        <div class=\"content\">\n                                            <h3>Ivonete \u00c1vila<\/h3>\n                                            <span>Universidade Estadual Paulista &#8211; UNESP, Brasil<\/span>\n                                            <p class=\"lecture\">LOW-CARBON AND CO\u2082 CAPTURE TECHNOLOGIES: ADVANCES AND PERSPECTIVES<\/p>\n                                        <\/div>\n                                        <span class=\"icon-arrow_forward_ios arrow arrow-ac\"><\/span>\n                                    <\/div>\n                                    <div class=\"ac-panel\">\n                                        <div class=\"inner-content\">\n                                            <p><strong>Short description:<\/strong> Against the backdrop of climate change and the global energy transition, this presentation will explore pathways to a low-carbon future. Focusing on the Brazilian context, it will highlight the strategic role of biomass and the potential of carbon capture technologies in building more renewable and sustainable energy systems, while considering recent advances, challenges, and future prospects.<\/p>\n                                        <\/div>\n                                    <\/div>\n                                <\/div>\n                                                        \n                        <\/div>\n                    <\/div>\n                <\/div>\n            <\/section>\n\n        \n    \n","protected":false},"excerpt":{"rendered":"","protected":false},"author":1,"featured_media":0,"parent":0,"menu_order":0,"comment_status":"closed","ping_status":"closed","template":"","meta":{"_acf_changed":false,"footnotes":""},"class_list":["post-1205","page","type-page","status-publish","hentry"],"acf":[],"_links":{"self":[{"href":"https:\/\/eventos.abcm.org.br\/encit2026\/wp-json\/wp\/v2\/pages\/1205","targetHints":{"allow":["GET"]}}],"collection":[{"href":"https:\/\/eventos.abcm.org.br\/encit2026\/wp-json\/wp\/v2\/pages"}],"about":[{"href":"https:\/\/eventos.abcm.org.br\/encit2026\/wp-json\/wp\/v2\/types\/page"}],"author":[{"embeddable":true,"href":"https:\/\/eventos.abcm.org.br\/encit2026\/wp-json\/wp\/v2\/users\/1"}],"replies":[{"embeddable":true,"href":"https:\/\/eventos.abcm.org.br\/encit2026\/wp-json\/wp\/v2\/comments?post=1205"}],"version-history":[{"count":49,"href":"https:\/\/eventos.abcm.org.br\/encit2026\/wp-json\/wp\/v2\/pages\/1205\/revisions"}],"predecessor-version":[{"id":1655,"href":"https:\/\/eventos.abcm.org.br\/encit2026\/wp-json\/wp\/v2\/pages\/1205\/revisions\/1655"}],"wp:attachment":[{"href":"https:\/\/eventos.abcm.org.br\/encit2026\/wp-json\/wp\/v2\/media?parent=1205"}],"curies":[{"name":"wp","href":"https:\/\/api.w.org\/{rel}","templated":true}]}}