Skip to main content

Currently Skimming:


Pages 67-84

The Chapter Skim interface presents what we've algorithmically identified as the most significant single chunk of text within every page in the chapter.
Select key terms on the right to highlight them within pages of the chapter.


From page 67...
... 67   C H A P T E R   7 7.1 Perspective on the Aviation Demand Implementation Timeline Short-Term Perspectives (2025 Horizon) In the market assessment, the model forecasts indicate only a modest fleet size, accounting for less than 2 percent of the total fleet mix.
From page 68...
... 68 Preparing Your Airport for Electric Aircraft and Hydrogen Technologies aviation and generate a new type of regional air mobility that connects smaller communities and larger metropolitan areas on short-haul flights. A favorable framework at the state level that addresses the challenges described later in the analysis can enable and promote the emergence of regional leaders in electric aircraft operations.
From page 69...
... Impact of Electric Aviation on the Demand 69   • Aircraft utilization: Number of flight hours flown by a single aircraft during a given time period (day, month, or year)
From page 70...
... 70 Preparing Your Airport for Electric Aircraft and Hydrogen Technologies of battery chargers used, and the market penetration of electric aircraft. For this use case, the assumptions are documented below: • The limited range and endurance of electric flight training aircraft and the typical length of flight training missions imply that batteries are depleted upon landing (i.e., down to a 20 percent state of charge)
From page 71...
... Impact of Electric Aviation on the Demand 71   Estimations indicate monthly energy needs between 8 megawatt-hours (MWh)
From page 72...
... 72 Preparing Your Airport for Electric Aircraft and Hydrogen Technologies used for personal use. Dekalb-Peachtree Airport (PDK)
From page 73...
... Impact of Electric Aviation on the Demand 73   Estimations based on these assumptions indicate monthly energy needs between 50 MWh and 250 MWh at PDK, between 100 MWh and 600 MWh at TMB, between 35 MWh and 175 MWh at TEB, and finally between 80 MWh and 410 MWh at VNY as indicated in Figure 28. The corresponding power demand from the electric grid is provided in Figure 29.
From page 74...
... 74 Preparing Your Airport for Electric Aircraft and Hydrogen Technologies Figure 28. Electric energy demand for different levels of electric aircraft market penetration at a selection of airports for personal use operations.
From page 75...
... Impact of Electric Aviation on the Demand 75   in a class Delta airspace that is eligible to receive Essential Air Services subsidies. The second is Molokai Hoolehua Airport (MKK)
From page 76...
... 76 Preparing Your Airport for Electric Aircraft and Hydrogen Technologies Figure 31. Electric energy demand for different levels of electric aircraft market penetration at a selection of airports for commuter operations.
From page 77...
... Impact of Electric Aviation on the Demand 77   Regional Air Cargo Regional air cargo operations are similar to commuter operations in terms of aircraft size and average mission length. One difference is their slower tempo of operations, resulting in long ground turnaround times and reduced daily utilization.
From page 78...
... 78 Preparing Your Airport for Electric Aircraft and Hydrogen Technologies Power demand is estimated between 175 kW and 200 kW at MCN, between 550 kW and 2.5 MW at MKK, between 550 kW and 3 MW at HYA, and between 175 kW and 750 kW at BOI. A 50 percent market penetration for electric aircraft yields a power demand ranging between 200 kW and 1.6 MW to support regional air cargo operations at these four airports.
From page 79...
... Impact of Electric Aviation on the Demand 79   batteries and electric motors will provide half of the required power (4 MW) , which is about 2 MW.
From page 80...
... 80 Preparing Your Airport for Electric Aircraft and Hydrogen Technologies Figure 36. Electric energy demand for different levels of electric aircraft market penetration at a selection of major hub airports supporting regional aircraft operations.
From page 81...
... Impact of Electric Aviation on the Demand 81   Use Case Example Operation Tempo Vehicle Power Requirement Charging Infrastructure Airport Power Requirement Airport Energy Requirement Flight Training Pipistrel Alpha Electro High ~60 kW Charger @ 20 kW 25 – 1,800 kW 8 – 620 MWh Personal Use Bye Aerospace SunFlyer 4 / Eflyer 4 Low ~105 kW Charger @ 10 kW 100 – 1,700 kW 50 – 600 MWh Air Taxi Bye Aerospace SunFlyer 4 / Eflyer 4 Very High ~105 kW Super-Fast Charger @ 600 kW 100 – 1,700 kW 35 – 600 MWh Commuter Eviation Alice Very High ~260 kW Battery Swaps & Charger @ 60 kW 50 – 3,000 kW 0.5 – 70 MWh Air Cargo Eviation Alice Low ~260 kW Fast Charger @ 200 kW 200 – 3,000 kW 0.5 – 70 MWh Regional Airline UTC Project 804 High ~4 MW ~2 MW electric (50%) Battery Swaps & Super-Fast 550 – 7,200 kW 200 – 5,000 MWh Charger @ 600 kW Table 11.
From page 82...
... 82 Preparing Your Airport for Electric Aircraft and Hydrogen Technologies (Re) emergence of Regional Airports An increase in the regional flight demand at some airports at the 2030 horizon would require adapting the passenger terminal facilities to accommodate such demand.
From page 83...
... Impact of Electric Aviation on the Demand 83   typically walk to the hold room and then walk to the plane on foot. Most of the time, passengers must take stairs or elevators to descend from the main terminal floor to the ramp level.
From page 84...
... 84 Preparing Your Airport for Electric Aircraft and Hydrogen Technologies • Improve the ability of single-piloted aircraft to operate safely in complex airspace (that is, at airports and in airways with many and diverse operators)

Key Terms



This material may be derived from roughly machine-read images, and so is provided only to facilitate research.
More information on Chapter Skim is available.