The role of renewable energy in the global energy transformation
Renewables plus energy efficiency could meet two-thirds of global energy demand by 2050 and deliver most of the emissions cuts needed to stay under 2 °C.
Renewables plus energy efficiency could meet two-thirds of global energy demand by 2050 and deliver most of the emissions cuts needed to stay under 2 °C.
Pairing a Bi-LSTM forecaster with a scheduling optimizer lets a solar-plus-battery smart home cut its daily electricity bill under time-of-use pricing.
A genetic-algorithm scheduler for grids with wind, solar and batteries cut operating cost 59%, emissions 7%, and expected unserved load 2.67%.
Pairing a new energy-management rulebook with particle swarm optimization finds the cheapest combination of solar panels and battery storage for a grid-connected microgrid.
A central district controller schedules shared solar, batteries and electric-vehicle storage across cooperative microgrids, cutting costly last-minute electricity purchases even when demand and generation are uncertain.
Connecting solar, wind and batteries to digital grids opens serious hacking routes, and current defenses lack real-time detection, cross-domain data protection and harmonized policy.
Solar panels paired with batteries, hydrogen storage and blockchain trading cut household grid electricity use by 45–50% and CO2 by up to 70% in simulations.
An AI-managed smart grid simulated for a 1,500-bed Malaysian hospital cut HVAC use 11.6%, lifted energy efficiency 25%, and met 86% of demand with rooftop solar.
Upgrading tram and trolleybus DC substations in stages to host EV chargers, batteries and solar can pay back 10-20% annually while improving power quality.
A solar-powered fish farm monitor uses cameras and deep learning to track fish behaviour, health, water quality and feeding without grid electricity.
A machine-learning charging controller for home solar EV setups raised on-site solar use by about 22% while keeping batteries out of aging-prone hot, high-charge conditions.
Scheduling a solar-wind-battery-fuel-cell microgrid with the NSGA-III algorithm cut operating costs to 131.73 cents while flattening demand peaks better than four rival methods.
Combining a grey-wolf optimizer for siting solar/wind units with a neural-network load forecaster cut power losses 61.7% and saved $1,741 a day on a test grid.