Ruth Haines
APM stands for Automated People Mover, a transport system used at airports to shuttle passengers over short distances. APMs are also referred to as Passenger Transport Systems (PTS) and are designed to be high-capacity, energy-efficient, and fast to construct. They can be self-propelled or cable-propelled, with the latter being more robust and simpler, but less flexible in terms of line lengths and transport capacities. APMs are used at airports around the world, including in Frankfurt, Phoenix, Tampa, Munich, and Orlando.
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What You'll Learn
- APM stands for Automated People Mover
- APM systems are mainly used at airports as connector or feeder systems for shorter distances
- APMs are also referred to as Passenger Transport Systems (PTS)
- Self-propelled APM systems have demanding infrastructure requirements
- Cable-propelled APMs are simple and robust, with the ability to withstand harsh weather conditions
APM stands for Automated People Mover
The first airport APM system was introduced at Tampa International Airport in 1971, and since then, APMs have become common at large airports and hospitals in the United States. APMs have also been implemented at Frankfurt Airport, Phoenix Sky Harbor International Airport, and Munich Airport.
Alstom is a leading provider of Innovia APM systems, offering fully integrated solutions for airport and urban transit. Their systems provide outstanding passenger comfort, high capacity, and minimal infrastructure and environmental impact. Alstom's Innovia APMs can be customized with configurations ranging from 1 to 6-car trains, making them adaptable to low to medium capacity operations.
In terms of technology, APMs can utilize a variety of propulsion methods, including conventional on-board electric motors, linear motors, or cable traction. Some APMs may also use monorail, rail tracks, or maglev technology. The specific design and technology employed depend on the unique requirements of the location and the vendor providing the system.
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APM systems are mainly used at airports as connector or feeder systems for shorter distances
APM stands for Automated People Mover, and these systems are used at airports to transport passengers over short distances. APM systems are an efficient and convenient way to move people within an airport campus, connecting terminals, parking, and other facilities. They are especially useful for larger airports with multiple terminals or satellite concourses, acting as feeder or connector systems.
APM systems are designed to provide high-capacity transport with minimal infrastructure and a low environmental impact. They can be customised to meet the specific requirements of an airport, with configurations ranging from 1 to 6-car trains. For example, Alstom's Innovia APM system at Frankfurt Airport connects Terminals 1 and 2, carrying 12 million passengers per year. Similarly, at Phoenix Sky Harbour International Airport, the Innovia APM system is designed to carry up to 200,000 passengers daily.
The Orlando International Airport in Florida utilises five APM systems, four of which are called Gate Links, connecting the main terminal to four satellite concourses. The fifth, the Terminal Link, connects the main terminal to the Intermodal Terminal. These APM systems improve passenger flow and enhance the overall airport experience by providing seamless connections within the airport complex.
APMs can be self-propelled or cable-propelled. Self-propelled APMs have motors and gears on board, allowing for high transport capacities and flexible operations. However, they require heavy concrete guideways and guideway heating for winter operations. On the other hand, cable-propelled APMs, such as the Cable Liner and MiniMetro, offer a simpler and more robust technology that performs well in challenging weather conditions with low maintenance. While cable-propelled systems have limitations in terms of line lengths and transport capacities, they can provide fast point-to-point connections with minimal stations.
In summary, APM systems are primarily used at airports to efficiently move people over shorter distances, improving airport connectivity and enhancing the overall passenger experience. With customisable solutions and flexible operations, APMs have become an integral part of airport infrastructure, catering to the diverse needs of airports and their passengers worldwide.
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APMs are also referred to as Passenger Transport Systems (PTS)
APM stands for Automated People Mover, and these systems are also referred to as Passenger Transport Systems (PTS). They are designed to provide convenient, comfortable, and efficient transport for passengers within an airport. APMs are often used to connect different terminals or areas within an airport, such as between the check-in and boarding areas. These systems are fully automated and aim to minimise infrastructure and environmental impact while offering high capacity and flexibility.
Alstom, for instance, provides the Innovia APM system, which can be customised to meet specific requirements. Their systems have been implemented in airports such as Frankfurt, Phoenix Sky Harbour International, and Munich. APMs can also be adapted for different capacities, with configurations ranging from 1 to 6-car trains to accommodate varying needs during operating hours.
Passenger Transport Systems or PTS, specifically, refer to the technology and devices employed to monitor and track passenger movement within an airport. This includes the use of WiFi routers, stereo-cameras, security cameras, and dedicated PTS software. PTS enhances customer satisfaction by providing data on passenger behaviour in retail, food, and leisure areas of the airport. It also enables real-time reporting and analytics, allowing operators to make informed decisions and improve efficiency.
When selecting a PTS, factors such as accuracy, scalability, integration with existing infrastructure, data security, cost, user-friendliness, reliability, and compatibility with mobile devices are essential. PTS plays a vital role in optimising airport operations and improving the overall passenger experience.
In summary, APMs or PTS are integral components of modern airports, facilitating seamless passenger transportation and enhancing operational efficiency while accommodating the diverse needs of travellers and staff.
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Self-propelled APM systems have demanding infrastructure requirements
APM stands for Automated People Mover, and these systems are used at airports to transport passengers. Self-propelled APM systems have demanding infrastructure requirements, and the implementation of such systems requires careful planning and consideration of various factors.
Firstly, self-propelled APMs are electrically powered by onboard AC or DC motors, which require a reliable source of power supply. The power distribution can be provided as three-phase AC or DC, with substations spaced along the guideway to supply power to the vehicles. The distance between substations for AC systems is typically limited to 2000 ft, while for DC systems, it is limited to one mile. This infrastructure requirement is crucial to ensure the continuous operation of self-propelled APMs.
Secondly, the guideway, or the running surface that supports and guides APM vehicles, plays a significant role in self-propelled APM systems. The guideway can be constructed at ground level, elevated, or below grade in a tunnel. While cable-propelled APMs have passive vehicles that allow for a lighter guideway structure, self-propelled APMs require a more robust guideway due to the weight of the onboard motors. The design and construction of the guideway must be carefully engineered to support the weight of the vehicles and ensure smooth operation.
Additionally, the flexibility of self-propelled APM systems is a key consideration. Unlike cable-propelled systems that are limited by the length of the rope, self-propelled APMs are not restricted in guideway length. This allows for greater flexibility in terms of route planning and expansion. However, this also means that self-propelled APMs may require more extensive infrastructure, particularly when compared to cable-propelled systems, which are often more feasible for shorter shuttle connections.
Furthermore, the integration of self-propelled APM systems into existing airport facilities can be complex. Airports typically have experience in planning and implementing various passenger conveyance systems, but APM systems, especially those that are self-propelled, introduce unique interface requirements. Careful planning is necessary to ensure seamless connectivity between the APM system and the airport facilities it serves, including terminals, parking areas, and transportation services.
In summary, self-propelled APM systems demand careful consideration of power supply, guideway design, flexibility, and integration with existing infrastructure. These systems offer advantages in terms of flexibility and route expansion but require more extensive infrastructure compared to cable-propelled alternatives. Therefore, comprehensive planning and engineering are essential to successfully meet the demanding infrastructure requirements of self-propelled APM systems in airports.
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Cable-propelled APMs are simple and robust, with the ability to withstand harsh weather conditions
APM stands for Automated People Mover, and these systems are used in airports to connect terminals and nearby facilities. Cable-propelled APMs are a type of automated people mover that is pulled by a cable instead of being self-propelled with electric motors.
Cable-propelled APMs are simple and robust, offering a convenient and reliable mode of transportation. Their design is inherently straightforward, with a cable providing the propulsion necessary to move the vehicles between locations. This simplicity enhances the overall robustness of the system, reducing potential points of failure and making maintenance more accessible.
One of the key advantages of cable-propelled APMs is their ability to withstand harsh weather conditions. External cables, such as those used in cable-propelled APMs, are often designed and armoured to resist extreme weather, including rain, snow, and heat. This resilience ensures uninterrupted connectivity and reliable operations, regardless of the environmental challenges posed by the weather.
The durability of cable-propelled APMs is further demonstrated by their ability to withstand not only harsh weather but also potential damage from pests and other external factors. Properly armoured external cables can prevent pests from causing connectivity issues or creating safety hazards. Additionally, cable-propelled APMs can be designed with flexible configurations, making them adaptable to various weather conditions and operational needs.
The robustness of cable-propelled APMs extends beyond their ability to withstand harsh weather. These systems are also known for their reliability in transporting millions of passengers with almost 100% reliability. For example, the Turnkey APM system at Frankfurt Airport has been in operation since 1994, connecting terminals and carrying a significant number of passengers annually.
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Frequently asked questions
APM stands for Automated People Mover.
An Automated People Mover (APM) is a transport system that moves people from one area of the airport to another. APMs are generally Automated Guideway Transit (AGT) systems and are used as connector or feeder systems for shorter distances, usually under 7km.
APMs are designed to carry a high volume of passengers with minimal infrastructure and environmental impact. They are also suitable for congested environments as they are fast to construct.
APMs are used in airports around the world, including Frankfurt Airport, Munich Airport, Phoenix Sky Harbour International Airport, and Orlando International Airport.
