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Airport Systems Planning & Design / RdN AIRPORT PASSENGER BUILDINGS: EFFICIENCY THRU SHARED USE Dr. Richard de Neufville Professor of Engineering Systems & Civil and Environmental Engineering M.I.T. Based on work with Steven Belin, Senior Analyst, S H & E
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Airport Systems Planning & Design / RdN Shared Space and Facilities in Airport Passenger Buildings Sharing between Units of Activity => 10 to 60% improvements …either in cost reduction for overall airport capacity …or in capacity for fixed building and facilities
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Airport Systems Planning & Design / RdN Major Improvement over Traditional Approach to Design Traditional Approach Defines maximum capacity different units (international, domestic, gates, etc.) Provides facilities to meet these demands Overall, provides more than required Shared Use Approach Takes advantage of overlap Uses Space and Facilities more intensely Provides Capacity more cost-effectively
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Airport Systems Planning & Design / RdN Example Contrasting Shared Use and Traditional Approach (1) Bangkok Phase 1: 30 MAP Design Traffic: International: 21 to 25 MAP Domestic: 5 to 9 MAP Traditional Approach Has Space for: 25 + 9 = 34 MAP But intended for 30 MAP capacity!
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Airport Systems Planning & Design / RdN Example Contrasting Shared Use and Traditional Approach (2) Shared Approach Designs for : 21 + 5 + 4 (shared) = 30 MAP 13% savings in space or: 24 + 6 + 4 (shared) = 34 MAP 13% increase in capacity over traditional More value for money either way!
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Airport Systems Planning & Design / RdN Primary and Secondary Drivers Motivating Use of Shared Space
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Airport Systems Planning & Design / RdN Analysis Methods Recommended for each motivating factor
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Airport Systems Planning & Design / RdN Peak Capacity Sharing -- Short time, needs identical Basic example: Lounge space for aircraft gates people all have same needs Other examples: bag claims, car parks, curb space, etc… Sharing of Lounge Space is Common Practice in US Airports Not in Europe, Japan, Asia
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Airport Systems Planning & Design / RdN Example Pattern of Occupancy: Shared Lounge for 4 Gates Gate 1 Gate 2Gate 3 Gate 4 Gate 1 Gate 2Gate 3 Gate 4 Gate 1 Gate 2 Gate 3 Gate 4 Gate 1 Gate 2 Gate 3 Gate 4 1 2 2 3 4 4 4 3 3
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Airport Systems Planning & Design / RdN Sharing lounges saves Space
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Airport Systems Planning & Design / RdN Concept of Shared Lounge Space
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Airport Systems Planning & Design / RdN Shared Departure Lounge: Las Vegas/McCarran Shared Lounge
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Airport Systems Planning & Design / RdN Shared Departure Lounge: Miami/International Shared Lounge Shared Lounge
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Airport Systems Planning & Design / RdN Percent of Lounge Space needed depends on situation (table)
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Airport Systems Planning & Design / RdN Percent of Lounge Space needed depends on situation (graph)
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Airport Systems Planning & Design / RdN Shared Departure Lounge, Widebody Occupancy time (min.) / Interdeparture time (min.)
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Airport Systems Planning & Design / RdN Shared Departure Lounge, Narrowbody Occupancy time (min.) / Interdeparture time (min.)
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Airport Systems Planning & Design / RdN Peak Capacity Sharing -- Longer Time, Needs Different Basic examples: Gates for Aircraft, Processing of International and Domestic Passengers Investment to enable flexibility (airbridges, sterile corridors, etc) Examples applications: Las Vegas, Wellington, Boston... Kuala Lumpur, Mombasa, New Bangkok...
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Airport Systems Planning & Design / RdN International or Domestic Only
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Airport Systems Planning & Design / RdN Both International and Domestic
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Airport Systems Planning & Design / RdN International / Domestic Swing Gates: Las Vegas/McCarran Concourse Gate T2-1 Gate T2-2 Gate T2-3 To FIS
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Airport Systems Planning & Design / RdN International / Domestic Swing Gates: Wellington, New Zealand
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Airport Systems Planning & Design / RdN Swing Baggage Claim: Wellington, New Zealand
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Airport Systems Planning & Design / RdN Uncertainty Space -- Insurance for Current Needs Uncertainty in Operations (Schedule delays, maintenance…) Spare Capacity => Insurance Simple Formula for Design Gates: Design Gates = Maximum scheduled (G) + Allowance for Delay (G 1/2 ) Sharing => Smaller Buffer (as %) (G 1/2 )/G = 1/(G 1/2 ) units together raise G
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Airport Systems Planning & Design / RdN Concept of Shared “Insurance Space”
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Airport Systems Planning & Design / RdN Expanded Concept of Shared Space: Time Overlaps + Insurance
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Airport Systems Planning & Design / RdN Uncertainty Space -- Insurance for Future Needs Uncertainty in Future Traffic Mix Normal Variability -- from historical record Extraordinary Variability -- Major Shift (airport becomes international gateway, hub…) Insurance = Flexible Future Capacity Adapt Capacity to Future Traffic Mix
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Airport Systems Planning & Design / RdN Structure of Decision Analysis to select optimal shared capacity
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Airport Systems Planning & Design / RdN Flexible Space Easily Adapts to Changes in Future Demand
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Airport Systems Planning & Design / RdN Percent Swing Gates Needed -- Normal Variability
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Airport Systems Planning & Design / RdN Percent Swing Gates ( + 20% cost) -- Extraordinary Variability
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Airport Systems Planning & Design / RdN Percent Swing Gates ( + 5% cost) -- Extraordinary Variability
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Airport Systems Planning & Design / RdN Practical Conclusions For Design Routine Use of Shared Lounges 20 to 30% shared gates, etc... For Analysis Spreadsheets do excellent job Existing results can be used Formulas also available
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