- Covers the state-of-the-art in hybrid power cycles for power generation with lower emission - Discusses ongoing research & development activities, challenges, constraints, and opportunities in both theoretical as well as application aspects of several hybrid technologies for power generation - Presents new energy storage technique - Contains exergoeconomic and environmental analysis for several hybrid configurations - Presents SOFC integrated blade cooled gas turbine hybrid power cycles

Prospects of Hydrogen-fueled Power Generation brings together experts to explore the various challenges and opportunities of hydrogen as a fuel in power generation, transportation, storage, and safety. Special interest is given to proton exchange membrane fuel cell (PEMFC) fuel cells, hydrogen energy, and the conversion methods. The usage of clean fuel in road transportation, marine transportation, and the power generation sector are also discussed in detail. Additionally, performance investigations reveal information about the system's energy and exergy analysis. Hydrogen-fueled power generation is the process of generating electricity using hydrogen as the primary fuel source. This process typically involves the conversion of hydrogen into electricity using fuel cells or combustion engines. Fuel cells are electrochemical devices that convert hydrogen into electricity and water with no emissions other than water vapor. Combustion engines, on the other hand, burn hydrogen to produce heat, which is used to generate electricity through a turbine. The byproducts of hydrogen combustion are water and heat, with no harmful emissions. One advantage of hydrogen-fueled power generation is that it produces no harmful emissions, making it a clean and sustainable source of energy. Additionally, hydrogen is a highly abundant element that can be produced from a variety of sources, including natural gas, biomass, and renewable energy sources like solar and wind power.

Shrinking feature size and diminishing supply voltage are making circuits sensitive to supply voltage fluctuations within the microprocessor, caused by normal workload activity changes. If left unattended, voltage fluctuations can lead to timing violations or even transistor lifetime issues that degrade processor robustness. Mechanisms that learn to tolerate, avoid, and eliminate voltage fluctuations based on program and microarchitectural events can help steer the processor clear of danger, thus enabling tighter voltage margins that improve performance or lower power consumption. We describe the problem of voltage variation and the factors that influence this variation during processor design and operation. We also describe a variety of runtime hardware and software mitigation techniques that either tolerate, avoid, and/or eliminate voltage violations. We hope processor architects will find the information useful since tolerance, avoidance, and elimination are generalizable constructs that can serve as a basis for addressing other reliability challenges as well. Table of Contents: Introduction / Modeling Voltage Variation / Understanding the Characteristics of Voltage Variation / Traditional Solutions and Emerging Solution Forecast / Allowing and Tolerating Voltage Emergencies / Predicting and Avoiding Voltage Emergencies / Eliminiating Recurring Voltage Emergencies / Future Directions on Resiliency