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Energy Management Studies

Tools for Identifying Energy Cost Savings

image overlay Chart showing energy usage comparison between small and large conveyor groups at Seattle-Tacoma International Airport.

개요

The electrical power required by motors to operate conveyors in a baggage handling system (BHS) is essential for designing the overall BHS. In many systems, numerous conveyors grouped into zones are started simultaneously due to the motor control configuration, such as soft starters, known as Zone Methodology. In this configuration, multiple conveyors are activated simultaneously, and they run continuously until the zone has been cleared of bags for a specified period, typically 10 minutes or more. This approach can result in running a large number of conveyors to transport a small number of bags during off-peak hours. The implementation of Variable Frequency Drives (VFDs) throughout the BHS eliminates the need for conveyor zones, allowing for targeted control and increasing energy efficiency by running motors only when necessary.

Small Group Methodology

An alternative zoning strategy is the Small Group Methodology, where conveyors run only when bags are present. Downstream conveyors are activated seconds before bags reach them and deactivate a few seconds after the last bag exits. This method reduces unnecessary conveyor operation and achieves significant energy savings.

Simulation and Verification

BNP uses simulation to verify the benefits of the Small Group Methodology. This approach involves activating motors when a bag approaches within a certain distance (configurable to three seconds of travel time) and deactivating them after the last bag exits the conveyor, with varying sleep delays (1, 2, 3, 5, and 600 seconds) examined. In contrast, the Zone Methodology simulation set a fixed sleep delay of 600 seconds for all conveyors. Energy consumption for each method was calculated over a 24-hour period.

결과

The bag systems have been simulated using the Zone Method and the Small Group Method to quantify the runtime and the number of starts and stops of each conveyor. This data, combined with the motor energy requirements, is used to estimate the daily energy consumption of each approach. Simulations have identified opportunities to reduce airport energy costs by up to 33%. The graph below depicts the energy utilization for each methodology over the 24-hour study interval, showing significant energy savings with the application of the Small Group Methodology.

프로젝트 시작

N/A

클라이언트

N/A

서비스 범위

  • Energy Savings
  • Data Analysis
  • Operational Modeling Tool
  • 시뮬레이션

지역

N/A

Simulation Success Stories

image overlay Changi International Airport (SIN) Terminal 5 Baggage Handling Systems
수하물 처리 시스템

아시아

Changi International Airport (SIN) Terminal 5 Baggage Handling Systems

BNP has been engaged by Changi Airport Group (CAG) to provide consulting services for the new Baggage Handling System (BHS) at the new Terminal 5, as part of Changi International Airport’s expansion plans.

image overlay Xi’an Xianyang International Airport (XIY) New Terminal 5 Baggage Handling System
수하물 처리 시스템

아시아

시안 셴양 국제공항(XIY) 신 터미널 5 수하물 처리 시스템

BNP는 새 터미널의 수하물 처리 시스템(BHS) 설계를 담당하고 있습니다. 이 범위에는 모든 수하물 시스템의 개념 및 세부 설계 개발, 터미널의 수하물 네트워크에 GTC 통합, 향후 위성 터미널과의 연결 계획 등이 포함됩니다.

image overlay Schiphol International Airport (AMS) Terminal A Baggage Handling System
수하물 처리 시스템

유럽

스키폴 국제 공항(AMS) 터미널 A 수하물 처리 시스템

암스테르담 스키폴 국제공항의 새로운 터미널 A를 설계하기 위해 건축 및 엔지니어링 컨소시엄의 일원으로 KAAN Architects가 BNP를 고용했습니다.

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