
Explore clean and renewable energy technologies, covering coal, oil, natural gas, solar, wind, hydro, geothermal, tidal, and biomass sources. Learn about production methods and energy conversion.

Comprehensive introduction to energy concepts, covering definitions, thermodynamics, forms, conversion, and efficiency, with practical examples and applications.

Explore practical applications of thermodynamic principles through worked examples, including turbines, nozzles, heat exchangers, and compressors.

Explore the history, evolution, and goals of power electronics, focusing on processing and controlling electrical energy in various applications and systems.

Explore the fascinating concept of information-to-energy conversion in autonomous thermal machines, delving into cutting-edge physics research and its potential applications.

Explore the revolutionary world of nanotechnology, from minuscule labs to enhanced materials, and its potential to solve global challenges through innovative applications and future possibilities.

Explore the concept and classifications of prime movers, essential knowledge for engineering students in mechanical and energy systems.

Explore the fundamentals of solar power plants, from sunlight's role to industry overview and primary energy harnessing methods. Gain insights into solar energy technology and its applications.

Explore organic materials for photovoltaic applications, including perovskite solar cells. Learn about low-cost, lightweight, and flexible organic semiconductors for converting sunlight into electrical energy.

Explore innovative Solar-to-X devices and their potential in renewable energy conversion with EIC Programme Manager Carina Faber's presentation on the 2024 Pathfinder Challenge.

Explore time-crystalline eigenstate order in quantum systems, covering many-body phases, Floquet time crystals, and experimental challenges using Google's Sycamore Device.

Explores inelastic photon scattering in Josephson junctions near the Schmid transition, examining dissipative environments, circuit QED applications, and experimental observations in long junction arrays.

Explore non-ergodicity and Hilbert-space fragmentation in tilted Fermi-Hubbard chains, covering theoretical concepts, simulations, and experimental results in quantum systems away from equilibrium.

Explores quantum Brownian motion in magnetic systems, discussing transport and energy conversion in non-equilibrium quantum systems, with applications in statistical and condensed matter physics.

Explore quantum transport and energy conversion in non-equilibrium systems, covering recent advances in cold atoms, thermoelectric effects, and experimental techniques for studying quantum phenomena.

Explore quantum impulse control and its applications in transporting wavefunctions, featuring insights on adiabatic theorem and practical examples for efficient energy conversion in quantum systems.

Explore topological frequency conversion in quantum systems, covering time-driven systems, Bernoulli models, and experimental protocols. Gain insights into transport and energy conversion in non-equilibrium quantum physics.

Explores spectral functions in finite disordered spin chains, examining transport and energy conversion in quantum systems away from equilibrium. Discusses recent advances in statistical, condensed matter, and atomic physics.

Explores general bounds on shot noise in charge and heat transport systems without currents. Discusses theoretical physics concepts and recent advances in quantum transport and energy conversion.

Explore quantum thermodynamics and local master equations with Gabriele De Chiara. Learn about recent advances in transport and energy conversion in quantum systems away from equilibrium.

Exploring topological defect formation in quantum annealing, examining universality and its implications for quantum systems away from equilibrium.