Managing wind power variability and uncertainty through increased power system flexibility: Dissertation

Keyphrases

• Electric Vehicle 100%
• Wind Power Generation 100%
• Wind Power Variability 100%
• Wind Power Uncertainty 100%
• Power System Flexibility 100%
• Smart Charging 100%
• Power System 66%
• Wind Power 66%
• Heat Generation 66%
• Combined Heat Power 66%
• Optimal Cost 66%
• Optimal Share 66%
• Electric Boiler 66%
• Power Unit 66%
• Heat Units 66%
• CO2 Emissions 33%
• Wind Power Integration 33%
• Electricity Demand 33%
• Heat Load 33%
• Energy Balance 33%
• Cost Savings 33%
• Heat Storage 33%
• Planning Model 33%
• Unit Commitment Model 33%
• Generation Planning 33%
• Power Generation 33%
• Short-time Energy 33%
• Conventional Power Plants 33%
• Cost Increase 33%
• Excess Power 33%
• Electric Vehicle Charging 33%
• Wind-generated Electricity 33%
• Balmorel 33%
• High Winds 33%
• Vehicle-to-grid 33%
• Stochastic Unit Commitment 33%
• Heat Use 33%

INIS

• cost 100%
• flexibility 100%
• power systems 100%
• wind power 100%
• heat 71%
• electric-powered vehicles 57%
• units 42%
• power generation 42%
• vehicles 28%
• electricity 28%
• power 28%
• boilers 28%
• wind 28%
• comparative evaluations 14%
• grids 14%
• planning 14%
• stochastic processes 14%
• operation 14%
• demand 14%
• emission 14%
• carbon dioxide 14%
• power plants 14%
• heating load 14%
• availability 14%
• heat storage 14%
• energy balance 14%
• shutdown 14%

Engineering

• Wind Power 100%
• Power Engineering 100%
• Electric Vehicle 80%
• Optimal Cost 40%
• Steam Generator 40%
• Wind Power Generation 40%
• Cogeneration Combined Cooling Heating Power 40%
• Heat Generation 40%
• Electricity Demand 20%
• Power Generation 20%
• Unit Commitment 20%
• Term Energy 20%
• Conventional Power Plant 20%
• Generated Electricity 20%
• High Wind 20%
• Vehicle to Grid 20%
• Thermal Load 20%
• Heat Storage 20%