Symposium FA
From Fossil Fuels to Tomorrow Powerplants: Materials and Technology Demand to Govern the Transition
Giuseppe BARBIERI, CNR-ITM, Italy
Members:
Raimundo ARROYAVE, Texas AM University, USA
Rangan BANERJEE, IIT Delhi, India
Xiang (Frank) CHEN, ORNL, USA
Anne JULBE, Univ. Montpellier, France
Simona LIGUORI, Clarkson University, USA
Eugene A. OLEVSKY, San Diego State University, USA
Sanjay SAMPATH, Stony Brook University, USA
Sridhar SEETHARAMAN, Arizona State University, USA
John SHINGLEDECKER, EPRI, USA
Mathias ULBRICHT, Universität Duisburg-Essen, Germany
Jose Manuel VALVERDE, University of Seville, Spain
Kyosuke YOSHIMI, Tohoku University, Japan
However, due to the ever-increasing energy demand, a number of countries have little choice but to continue generating power with fossil fuels and will be unable to comply with IEA's net zero emission for the year 2050. Therefore it is expected electric power generated from fossil fuels will continue to be a significant, although gradually decreasing energy source in the decades to come.
Within this transition period industry is expected to further develop and deploy more advanced combustion technologies and gasification-based systems to increase the efficiency and decrease the environmental impact associated with producing energy from carbon-containing materials as well as provide an opportunity for C02 capture and sequestration and exploit the chances offered by the produced synthesis gas as source for e-fuels and hydrogen.
The above technology implementations will not occur without simultaneous advances in materials science and engineering. Higher efficiencies in combustion and gasification processes for PCC and IGCC plants mean higher operating temperature and more aggressive service environments, placing a huge stress on construction materials. Furthermore, mixed feedstock requires more robust, impurity tolerant membrane materials and catalysts. Meetings these requirements will call for new, high-performance materials or protection strategies to extend their service life.
Moreover, novel catalysts for the e-fuels production, ammonia decomposition etc.; high throughput and selectivity sulphur, ammonia and chloride-tolerant hydrogen separation membranes; high-performance, defect-free C02 selective membranes are relevant research targets.
This symposium will cover significant advances in steam power including USC power plants (HRSG, boilers, steam turbines) and gas turbine to address the aforementioned issues aimed at reliably maintain the conversion of carbon-containing materials to energy in an efficient and environmentally benign way.
Materials for the new technologies, such as electrolisers, involved in energy production will contribute to novel solution to reduce the utilization of fossil fuels. Sessions will encompass major aspects concerning the science and characterization of materials, advanced processing technologies to produce components at the required scale and complexity, and their evaluation in service, MODELING AND SIMULATION OF MATERIALS AND PROCESSES; linked to a deeper understanding of the underlying physics and chemistry of the materials, such as catalysis, membrane separation mechanisms and materials/environment interactions.
FOSSIL FUEL COMBUSTION
FA-1 Advances in intermediate and high temperature structural materials: stainless steels, CSEF steels, ODS alloys, superalloy, intermetallics, aluminides, oxide and non-oxide ceramics, ceramic-or-metal-matrix composites, other emerging materials
FA-2 Membranes for oxygen separation; Adsorbents for CO2 capture
FA-3 Joining; Coatings (metallic, TBC, EBC) and claddings; Repair
FA-4 Damage mechanisms and properties: creep, fatigue, oxidation, corrosion, erosion, wear…
FA-5 New designs and advanced manufacturing routes for components
FA-6 Reliability and in-service performance
GASIFICATION AND GAS CLEAN-UP
FA-7 Improved or new materials. Materials to enable fuel flexibility. Injector systems
FA-8 Catalysts for water-gas shift and catalysts for fuel production
FA-9 Membranes for H2 separation and CO2 selective membranes
FA-10 High temperature seals for membrane moduli assembly
FA-11 High temperature corrosion-resistant gas sensors
FA-12 Component lifetime, in-service performance, case studies