Advanced Power Generation Technologies
Research Guide

Advanced Power Generation Technologies are engineering approaches that improve how primary energy (fuel, nuclear heat, or solar heat) is converted into electricity using better heat transfer design, thermodynamic analysis, and power-cycle/combustor optimization. The provided literature emphasizes gas turbines, combustion systems, heat exchangers, and solar-thermal processes through highly cited reference works such as "Gas turbine theory" (1973) and "Solar-Energy Thermal Processes" (1976).

"Exergy analysis of thermal, chemical, and metallurgical processes" (1989) describes exergy as a method for evaluating where useful work potential is destroyed in real processes, including heat engines and commercial power stations. Exergy analysis helps compare design options by locating and quantifying irreversibilities, which supports targeted efficiency improvements in components such as combustors, compressors, turbines, and heat exchangers.

Rowen (1983) in "Simplified Mathematical Representations of Heavy-Duty Gas Turbines" presented simplified mathematical representations intended for dynamic power system studies and connected-equipment analyses. The paper explicitly covered heavy-duty single-shaft gas turbines from 18 MW to 106 MW, enabling model-based studies at realistic plant scales.

"GAS TURBINE COMBUSTION—Alternative Fuels and Emissions" (2010) centers combustion system design around fuel variability and emissions outcomes, reflecting the need to maintain stability and acceptable pollutant formation under changing fuel properties. In practice, it links combustor configuration and operating conditions to performance constraints that matter for stationary power generation.

"Gas turbine theory" (1973) organizes the key submodels needed for cycle and component analysis, including compressors, combustion systems, and turbines, and it frames how overall performance is predicted. "Gas Turbine Performance" (2004) complements this by emphasizing practical guidelines for achieving fuel efficiency, stability, and emissions control in gas turbine systems.

Dittus and Boelter (1985) in "Heat transfer in automobile radiators of the tubular type" and Annand (1963) in "Heat Transfer in the Cylinders of Reciprocating Internal Combustion Engines" represent the empirical foundations used to estimate convective heat transfer under engine and exchanger conditions. These estimates directly influence cooling design, allowable metal temperatures, and therefore achievable efficiency and durability in power-generation-related machinery.