Strengthening Operational Performance in Power Generation
Power generation facilities like yours face unprecedented operational challenges. Frequent plant cycling disrupts efficiency. Evolving regulations create compliance pressures. Workforce transitions threaten operational knowledge continuity. These pressures put your plant availability, flexibility, and team proficiency at risk.
You need a partner who understands these complexities and has proven solutions. Emerson's Final Control is a trusted provider of solutions backed by decades of power generation expertise and a specialized portfolio of valves, actuators, regulators, and severe service support programs designed specifically for the industry's demanding conditions.
We can collaborate with you to boost your plant availability through reliable equipment performance, improve your operational flexibility to handle cycling demands, and elevate workforce proficiency with expert support and training.
Valve Solutions for Combined Cycle Power Production Overview
Explore the comprehensive combined cycle power production value chain, highlighting each stage from initial fuel storage and distribution to the efficient energy conversion within the heat recovery steam generator and steam turbine, culminating in reliable power delivery supported by the balance of plant.
Valve Solutions for Combined Cycle Power Production Overview
Explore the comprehensive combined cycle power production value chain, highlighting each stage from initial fuel storage and distribution to the efficient energy conversion within the heat recovery steam generator and steam turbine, culminating in reliable power delivery supported by the balance of plant.
Combustion Turbine Solutions
A combustion turbine's ability to efficiently adapt to load changes isn't just an advantage—it's essential for profitable and reliable plant operation.
But variable conditions, from baseload capacity and cycling operations to peaking support, can stress equipment. Don't let variable conditions compromise your output. Ensure your turbine and its surrounding machinery deliver consistent, reliable performance, even during extended periods of operation, to guarantee your operational success.
Operational Opportunities:
- Improve turbine flexibility with more responsive fuel control
- Increase combustion efficiency with higher quality fuel
- Extend turbine life with cleaner fuel supply
- Reduce turbine trips with smooth pressure control
- Minimize product loss with zero leakage isolation
Heat Recovery Steam Generator
Emerson's Final Control valve technologies enable optimal Heat Recovery Steam Generator (HRSG) efficiency and precise steam control for your turbines. Designed for challenging boiler applications and increased cycling, Emerson ensures reliable, long-lasting HRSG operation.
Operational Opportunities:
- Accurately control drum levels for efficient steam generation
- Improve steam temperature control
- Enhance thermal efficiency
- Reduce heat loss with zero leakage isolation
- Protect critical assets with proven pressure & safety relief
Steam Turbine
Steam turbines are a major power plant investment, and as they age, precise control is crucial for maintaining performance. With Emerson’s Final Control solutions, you can ensure the continued reliability, responsiveness, efficiency, and protection of these vital assets.
Operational Opportunities:
- Reliably isolate the turbine during startup, shutdown, and plant upset conditions
- Precisely control bypass steam temperature
- Reduce heat loss with zero leakage isolation
- Protect your turbine from overpressure
Balance of Plant Solutions
Achieving peak plant efficiency requires a comprehensive approach, extending beyond just HRSGs and turbines. By implementing enhanced control and monitoring of your balance of plant operations, you can reduce outages and improve heat rate. Emerson’s Final Control solutions ensure an efficient and safe balance of plant processes with extended maintenance intervals.
Operational Opportunities:
- Efficiently manage fuel supply and storage
- Meet regulations with comprehensive ash handling and waste products disposal
- Optimize water intake and treatment
- Maximize turbine output with more reliable condenser cooling
CCPP By The Numbers
Revolutionizing Energy: The Rise of Innovative Power Systems
Combined Cycle Power Plants (CCPPs) are highly efficient , using both gas and steam turbines, and emit fewer pollutants than traditional plants. They offer reliability, operational flexibility, and lower operational costs. As energy demand increases and the transition to cleaner power continues, CCPPs will play a crucial role in the global energy mix, combining economic viability with environmental benefits.
Source: https://www.marketresearchfuture.com/reports/combined-cycle-power-plant-market-25431
of the world's electricity generated by CCPPs
CCGR
CCPP market is expected to grow from 2025-2034
CCPPs thermal efficiency is higher than traditional simple-cycle plant
CCPP produces significantly lower emissions than older coal-fired plants , with natural gas-fired CCPPs reducing CO2 emissions
Severe Services Power Industry Applications
Industrial steam generation and commercial electric-power boilers must be filled with water to a required level and then that level maintained during firing or heating of the boiler to generate steam. The water flow requirements prior to steam generation are controlled by a startup valve. Filling the boiler, maintaining water level during startup, and transferring load control to the main feedwater regulator are duties of the startup control valve. Initial conditions will require cavitation and fine flow control from the startup valve over a wide range of flow and pressure conditions.
Feedwater pumps impart high energy in terms of flow and pressure to the water going to a boiler. Centrifugal pumps require a minimum flow rate to maintain stable operation and avoid internal cavitation. When system conditions limit the flow rate below the pump minimum, a control valve allows bypass flow from the pump outlet back to the system upstream of the pump. The system flow rate is accomplished and the pump health is maintained. The valve itself must be selected to control pressure drops (example 6000 psid) while preventing cavitation.
Heat transfer inside a boiler is hindered by combustion products attached to the boiler surfaces. Soot blowers utilize system steam to blow those materials off the surfaces and thus maintain boiler efficiency. These valves take main steam sources and reduce the pressure while controlling flow in order to accomplish the main task without creating damaging noise and vibration.
During startup, shutdown, and emergency conditions the steam normally sent to the turbines is bypassed through these valves to condenser or atmosphere. This allows power delivery from the turbines to be curtailed and the steam recycled. The valve must provide noise reduction, high flow and pressure drop capability, while being suitable for large temperature differences.
This valve recycles flow through the primary ethane pump when needed to prevent cavitation. It is used most commonly in commissioning and startup as the unit is brought up to full capacity. Anti-cavitation trim is nearly always required due to the elevated pressure drop across the primary pump. Micro trims may be required as well to address low flow requirements.
This valve is a high pressure vent to flare header valve that is operated under emergency conditions. If the pressure in the separator increases above the set point, it's relieved to safeguard the separator. These valves are subjected to very high pressure drops, resulting in high levels of aerodynamic noise. Globe style valves with attenuating trims are commonly required to mitigate noise and potential vibration.
Videos

HRSG Feedwater and Steam Valve Operation Overview | Power Industry Application Series
A detailed overview of HRSG operation from the boiler feed pumps through the high pressure steam outlet with a brief discussion on critical control valve applications in each system. This covers plant startup, normal operating, and plant shutdown.






