Gas and Steam Turbine Course

Learn how turbines convert the energy of moving fluids such as water, steam, or gas into mechanical energy that drives blades and powers generators or propellers.

Explore how a gas turbine converts chemical energy of fuel into mechanical energy, delivering shaft power through a continuous flow of working fluid for power generation.

Explain the gas turbine working principle via the Brayton cycle, with two adiabatic and two constant-heat steps. Show how hot gas drives turbine blades and a generator.

Explore open cycle and growth cycle gas turbines, their core components: combustion chamber, compressor, turbine, and applications in power generation, marine use, and small scale jet engines.

Learn the core components of a gas turbine—compressor, combustor, and turbine—and how fuel injectors feed the chamber and blades convert gas flow to shaft horsepower.

Explore gas turbine design challenges, including size and efficiency limits, compression ratio and flow, hot-section stresses in nozzles and rotating buckets, and nickel-based superalloys enabling higher firing temperatures amid contaminants.

explore the advantages and disadvantages of gas turbines. highlight simple construction, low water use, high power-to-weight, and cheaper fuels, while noting noise and slower load response.

Identify major gas turbine manufacturers - General Electric, Siemens, Mitsubishi, and Salto solar turbines - and explain how manufacturing is controlled within the gas turbine system for modern power applications.

Explore steam turbine fundamentals, showing how steam expands through stages to convert heat into mechanical work for electricity and powering pumps and compressors, with Barnes's modern turbine.

Explore how steam turbines convert heat energy from a boiler into mechanical work as steam expands through fixed and moving blades, guided by the Rankine cycle and condenser-based heat rejection.

Classify steam turbines by impulse versus reaction, single-stage and multi-stage designs, blade types, axial versus radial flow, and configurations such as condensing and extraction turbines.

Explore the parts of a steam turbine by examining its major components, outer casing, and the role of outlet and steam flow within the housing.

Learn steam turbine codes and standards, distinguishing non-critical general-purpose service from more critical applications, with limits on bore size, temperature, speed, and electro-hydraulic safety and backup systems.

Identify the major steam turbine manufacturers—General Electric, Siemens, Mitsubishi Heavy Industries, and Toshiba—and learn why only a few produce turbines to high standards.